mhurhangee/patent-ind-claim-en huggingface dataset:
Method for supplying location information to an equipment item (EQ), implemented by a network access point (PAR), said network access point (PAR) being adapted to give said equipment item (EQ) access to a communication network to which the access point (PAR) is connected when said equipment item (EQ) is connected to a local communication network of said network access point (PAR), the method comprising the following steps: - obtaining (E23), from a server (SERV) of the communication network, information on the location of said network access point (PAR), said location information being location information certified by the operator of the communication network, the location information being obtained from an OFFER message according to the DHCP protocol sent in response to a DISCOVER message sent (E22) by said network access point to a DHCP server of the communication network, - receiving (E25), from said equipment item (EQ), a request for location information, - sending (E26), to said equipment item (EQ), said certified location information obtained. - obtaining (E23), from a server (SERV) of the communication network, information on the location of said network access point (PAR), said location information being location information certified by the operator of the communication network, the location information being obtained from an OFFER message according to the DHCP protocol sent in response to a DISCOVER message sent (E22) by said network access point to a DHCP server of the communication network, - receiving (E25), from said equipment item (EQ), a request for location information, - sending (E26), to said equipment item (EQ), said certified location information obtained.
A microdebrider comprising: a handpiece ; an interchangeable tip connected to the handpiece ; an outer tube rotatably connected to the interchangeable tip , the outer tube including an outer tube window ; an inner tube extending at least partially through the outer tube , the inner tube including an inner tube window ; an outer collet connected to the outer tube ; an inner collet connected to the inner tube ; a nosecone for moving the outer collet towards and into contact with the inner collet ; and a bias member located between the inner collet and the outer collet for assisting in separating the inner collet and the outer collet when the nosecone is released; wherein the inner tube and the outer tube are immobilized in rotation when the inner collet and the outer collet are in contact. a handpiece ; an interchangeable tip connected to the handpiece ; an outer tube rotatably connected to the interchangeable tip , the outer tube including an outer tube window ; an inner tube extending at least partially through the outer tube , the inner tube including an inner tube window ; an outer collet connected to the outer tube ; an inner collet connected to the inner tube ; a nosecone for moving the outer collet towards and into contact with the inner collet ; and a bias member located between the inner collet and the outer collet for assisting in separating the inner collet and the outer collet when the nosecone is released; wherein the inner tube and the outer tube are immobilized in rotation when the inner collet and the outer collet are in contact.
Board for lateral transfer of patients, of the type comprising a main body , flat, substantially rigid, which defines a top surface , a bottom surface and side edges that join said surfaces , and a tubular cover that partially wraps the main body , wherein the board comprises at least one fabric arranged between the main body and the tubular cover , characterized in that said fabric has two surfaces - a first that is joined to the main body and - a second which, once the first surface is attached to the main body , remains facing the tubular cover with which it comes into contact, at least partially, when transferring the patient, with said second surface comprising a sliding material, with said fabric occupying at least a part of the surface that covers the tubular cover , wherein the main body is made of a polyethylene foam with a density of at least 35 kg/m 3 the side edges are rounded and a guiding notch on at least one of the rounded side edges has been made. - a first that is joined to the main body and - a second which, once the first surface is attached to the main body , remains facing the tubular cover with which it comes into contact, at least partially, when transferring the patient, with said second surface comprising a sliding material, with said fabric occupying at least a part of the surface that covers the tubular cover ,
A genetically modified mouse, wherein the mouse is functionally deficient in endogenous CD3ε, CD3δ, and CD3y genes in its genome and functionally expresses full-length human CD3ε, CD3δ, and CD3γ, wherein the mouse carries immunocompetent cells including T cells that function normally.
A method for manufacturing a catheter, the method comprising: providing a primary substrate having at least one first electrically conductive element located thereon on an elongated carrier means , locating the carrier means in a lumen of a catheter with the primary substrate extending from the carrier means through a radial opening from the lumen with the at least one first electrically conductive element exposed exteriorly of the catheter characterised in that the method further comprises: wrapping the primary substrate around the carrier means , urging the carrier means with the primary substrate wrapped around the carrier means through the lumen of the catheter from the proximal end thereof until the primary substrate is located adjacent the radial opening , urging the primary substrate through the radial opening , and wrapping the primary substrate around the catheter as it is being unwound from the carrier means . providing a primary substrate having at least one first electrically conductive element located thereon on an elongated carrier means , locating the carrier means in a lumen of a catheter with the primary substrate extending from the carrier means through a radial opening from the lumen with the at least one first electrically conductive element exposed exteriorly of the catheter wrapping the primary substrate around the carrier means , urging the carrier means with the primary substrate wrapped around the carrier means through the lumen of the catheter from the proximal end thereof until the primary substrate is located adjacent the radial opening , urging the primary substrate through the radial opening , and wrapping the primary substrate around the catheter as it is being unwound from the carrier means .
A method of producing a paperboard comprising a top layer, a back layer and a middle layer, said method comprising the steps of: - forming a middle layer furnish comprising an OCC pulp, a chemithermomechanical pulp (CTMP) and broke pulp; and - forming said middle layer from said middle layer furnish, wherein, in the middle layer furnish, the amount of OCC pulp is higher than the amount of CTMP, which is higher than the amount of broke pulp as per dry weight and wherein the combined amount of OCC pulp, CTMP and broke pulp constitutes at least 88% as per dry weight of the middle layer furnish and wherein the OCC pulp constitutes more than 35% by dry weight of the middle layer furnish, the CTMP constitutes at least 25% by dry weight of the middle layer furnish and the broke pulp constitutes at least 13% by dry weight of the middle layer furnish. - forming a middle layer furnish comprising an OCC pulp, a chemithermomechanical pulp (CTMP) and broke pulp; and - forming said middle layer from said middle layer furnish, wherein, in the middle layer furnish, the amount of OCC pulp is higher than the amount of CTMP, which is higher than the amount of broke pulp as per dry weight and wherein the combined amount of OCC pulp, CTMP and broke pulp constitutes at least 88% as per dry weight of the middle layer furnish and wherein the OCC pulp constitutes more than 35% by dry weight of the middle layer furnish, the CTMP constitutes at least 25% by dry weight of the middle layer furnish and the broke pulp constitutes at least 13% by dry weight of the middle layer furnish.
A method for wireless communication at a first user equipment, UE (140-c) comprising: transmitting a request for contention free random access resources to a second UE (115-d) based at least in part on a low power capability of the first UE; receiving a contention free random access configuration (430-a, 430-b) based at least in part on the request; and performing a contention free random access procedure with a base station (105-c) based at least in part on the received contention free random access configuration. transmitting a request for contention free random access resources to a second UE (115-d) based at least in part on a low power capability of the first UE; receiving a contention free random access configuration (430-a, 430-b) based at least in part on the request; and performing a contention free random access procedure with a base station (105-c) based at least in part on the received contention free random access configuration.
An in-vehicle control device adapted to control a relay 22 configured to cut off an energizing current for an electromagnetic induction load , comprising a capacitor is connected between the relay and the electromagnetic induction load , characterised in that the in-vehicle control device cuts off the relay for a predetermined period of time while the electromagnetic induction load is energized, and diagnoses the relay based on a voltage of a portion in series with the relay obtained when the relay is cut off, the in-vehicle control device calculates the time during which the relay can be cut off and the capacitor is able to supply an energizing current to the electromagnetic induction load , wherein the in-vehicle control device cuts off the relay if a duty ratio of a signal that drives the electromagnetic induction load falls within a threshold range in which it is determined that the relay is capable of being cut off.
A computer-readable medium comprising instructions stored thereon, that when executed by at least one processor, cause the at least one processor to perform a network functions virtualization, NFV, Security Services Agent, NFV SSA, configured to: receive a security monitoring policy from an NFV security services controller arranged to initially instantiate the NFV SSA; collect telemetry data of a platform that comprises the processor via a first secure channel ; monitor the telemetry data based on the security monitoring policy, wherein the security monitoring policy comprises monitoring rules to indicate to the NFV SSA which telemetry data of the platform to monitor; package the telemetry data; and transmit the packaged telemetry data to a Security Monitoring Analytics System via a second secure channel for analysis to enable detection of threats and/or anomalies based on the collected telemetry data, wherein the packaged telemetry data is transmitted based on the security monitoring policy; and wherein a remediation security policy is received from the Security Monitoring Analytics System, in response to a detected threat and/or anomaly. receive a security monitoring policy from an NFV security services controller arranged to initially instantiate the NFV SSA; collect telemetry data of a platform that comprises the processor via a first secure channel ; monitor the telemetry data based on the security monitoring policy, wherein the security monitoring policy comprises monitoring rules to indicate to the NFV SSA which telemetry data of the platform to monitor; package the telemetry data; and transmit the packaged telemetry data to a Security Monitoring Analytics System via a second secure channel for analysis to enable detection of threats and/or anomalies based on the collected telemetry data, wherein the packaged telemetry data is transmitted based on the security monitoring policy; and wherein a remediation security policy is received from the Security Monitoring Analytics System, in response to a detected threat and/or anomaly.
A rotary impact tool comprising: a driving unit ; a spindle rotated by the driving unit; an anvil disposed in front of the spindle in the direction of the line of rotational axis of the spindle; a primary hammer rotatable around the line of rotational axis of the spindle and movable in the direction of the line of rotational axis; a cam structure in which at least one steel ball is disposed between a guidance groove of the spindle and an engagement groove of the primary hammer; a secondary hammer rotatable with the primary hammer as one piece; a support member that rotatably supports the secondary hammer; and a retaining member that retains the support member, wherein the retaining member is formed as a member separate from the spindle and has a retaining surface for retaining the support member characterised in that a mounting surface is mounted to the spindle so as not to be rotatable. a driving unit ; a spindle rotated by the driving unit; an anvil disposed in front of the spindle in the direction of the line of rotational axis of the spindle; a primary hammer rotatable around the line of rotational axis of the spindle and movable in the direction of the line of rotational axis; a cam structure in which at least one steel ball is disposed between a guidance groove of the spindle and an engagement groove of the primary hammer; a secondary hammer rotatable with the primary hammer as one piece; a support member that rotatably supports the secondary hammer; and a retaining member that retains the support member, wherein the retaining member is formed as a member separate from the spindle and has a retaining surface for retaining the support member characterised in that a mounting surface is mounted to the spindle so as not to be rotatable.
A microneedle patch, comprising: a plurality of microneedles each having a base end and a tip; and a substrate to which the base ends of the microneedles are attached; wherein the microneedles comprise: a shell, comprising: a first poly(vinyl alcohol) (PVA) polymer cross-linked with a first peroxide-sensitive linker; and a peroxide scavenging enzyme encapsulated within a first nanogel, wherein the first nanogel is embedded in the first PVA polymer; and a core, comprising: a second poly(vinyl alcohol) (PVA) polymer cross-linked with a second peroxide-sensitive linker; a glucose-responsive agent encapsulated within a second nanogel, wherein the second nanogel is embedded in the second PVA polymer; and a drug, wherein the drug is covalently attached to the second PVA polymer with a third peroxide-sensitive linker; preferably, wherein the drug is a therapeutic, prophylactic or diagnostic agent. a plurality of microneedles each having a base end and a tip; and a substrate to which the base ends of the microneedles are attached; wherein the microneedles comprise: a shell, comprising: a first poly(vinyl alcohol) (PVA) polymer cross-linked with a first peroxide-sensitive linker; and a peroxide scavenging enzyme encapsulated within a first nanogel, wherein the first nanogel is embedded in the first PVA polymer; and a core, comprising: a second poly(vinyl alcohol) (PVA) polymer cross-linked with a second peroxide-sensitive linker; a glucose-responsive agent encapsulated within a second nanogel, wherein the second nanogel is embedded in the second PVA polymer; and a drug, wherein the drug is covalently attached to the second PVA polymer with a third peroxide-sensitive linker; preferably, wherein the drug is a therapeutic, prophylactic or diagnostic agent. a shell, comprising: a first poly(vinyl alcohol) (PVA) polymer cross-linked with a first peroxide-sensitive linker; and a peroxide scavenging enzyme encapsulated within a first nanogel, wherein the first nanogel is embedded in the first PVA polymer; a first poly(vinyl alcohol) (PVA) polymer cross-linked with a first peroxide-sensitive linker; and a peroxide scavenging enzyme encapsulated within a first nanogel, wherein the first nanogel is embedded in the first PVA polymer; and a core, comprising: a second poly(vinyl alcohol) (PVA) polymer cross-linked with a second peroxide-sensitive linker; a glucose-responsive agent encapsulated within a second nanogel, wherein the second nanogel is embedded in the second PVA polymer; and a drug, wherein the drug is covalently attached to the second PVA polymer with a third peroxide-sensitive linker; preferably, wherein the drug is a therapeutic, prophylactic or diagnostic agent. a second poly(vinyl alcohol) (PVA) polymer cross-linked with a second peroxide-sensitive linker; a glucose-responsive agent encapsulated within a second nanogel, wherein the second nanogel is embedded in the second PVA polymer; and a drug, wherein the drug is covalently attached to the second PVA polymer with a third peroxide-sensitive linker; preferably, wherein the drug is a therapeutic, prophylactic or diagnostic agent.
A device comprising at least one pipeline for receiving at least one feedstock, said device having at least one current-conducting medium , said device having at least one power source or voltage source set up to generate an electrical current in the current-conducting medium which heats the pipeline by Joule heating that arises on passage of the electrical current through the current-conducting medium , wherein said current-conducting medium has a specific resistivity ρ of 0.1 Ωmm 2 /m ≤ ρ ≤ 1000 Ωmm 2 /m.
A method for quality control of a detection area of a test element to determine the concentration of an analyte in a liquid sample with the steps of • detecting light intensities of the light emitted from non-wetted subareas of a detection area by spatially-resolved measurement, • establishing a frequency distribution of the detected light intensities, and • comparing the frequency distribution with quality criteria, wherein the number of intensities within a specified intensity interval is determined as a quality criterion. • detecting light intensities of the light emitted from non-wetted subareas of a detection area by spatially-resolved measurement, • establishing a frequency distribution of the detected light intensities, and • comparing the frequency distribution with quality criteria, wherein the number of intensities within a specified intensity interval is determined as a quality criterion.
A liner for application to a surface of the skin, having a basic body produced from a flexible, watertight material and having an outside surface which, in the applied state, is remote from the surface of the skin and an inside surface which, in the applied state, faces the surface of the skin, wherein the base body has a closed outer side and channels which are open toward the surface of the skin are arranged on the inside surface , along which moisture and heat are dissipated, wherein the channels are formed by nubs and/or webs and the nubs and/or webs are formed integrally with the base body.
A circuit closer comprising: - a vacuum interrupter in which one of a pair of electrodes oppositely disposed in a vacuum vessel is provided so as to be capable of advancing and retracting relative to the other of the electrodes ; and - an operation device for driving the one of the electrodes toward the other of the electrodes at a predetermined time, characterised in that a gap d between the pair of electrodes always satisfies d > 0, and a gap d1 between the pair of electrodes in a state in which closing of a circuit is completed, is shorter than a distance d2 at which insulation between the pair of electrodes is broken down by a charge voltage V of the circuit that is to be closed, and is longer than a distance d3 at which the pair of electrodes are bridged by a deposition of an electrode metal forming the pair of electrodes after a closing operation, the deposition resulting from evaporation caused by heat of an arc (A) generated when the circuit is closed. - a vacuum interrupter in which one of a pair of electrodes oppositely disposed in a vacuum vessel is provided so as to be capable of advancing and retracting relative to the other of the electrodes ; and - an operation device for driving the one of the electrodes toward the other of the electrodes at a predetermined time,
A nonflammable sheet , comprising a resin layer formed on a surface of the woven fabric , wherein the woven fabric is formed of a nonflammable fiber, the resin layer comprises at least a first fluorocarbon resin and a second fluorocarbon resin, the first fluorocarbon resin comprises a vinylidene fluoride copolymer and an acrylic copolymer, the second fluorocarbon resin comprises a vinylidene fluoride polymer, a siloxane polymer, and a crosslinked acrylic polymer, wherein the second fluorocarbon resin is formed of an aqueous dispersion containing a composite polymer particle (I) and a composite polymer particle (II), the composite polymer particle (I) is obtained by mixing and emulsifying the following component (A), a radically polymerizable monomer (B), an emulsifier (C), and a hydrolysis catalyst (D) for the component (A) in an aqueous medium to cause a hydrolysis-condensation reaction of the component (A) to proceed, then fining the emulsion, then adding a radical polymerization initiator (E) thereto to cause a reaction, and causing a polymerization reaction of the component (B) to proceed, the composite polymer particle (II) is a polymer particle of a fluorine-containing polymer and a (meth)acrylic polymer; (A): at least one selected from the group consisting of organosilane represented by the following general formula (3-1), a hydrolyzate of the organosilane, and a partial condensate of the hydrolysate; (R 1 ) n -Si-(OR 2 ) 4-n (3-1) in the formula, R 1 is a monovalent organic group having 1 to 8 carbon atoms, two R 1 s may be the same as or different from each other, R 2 is a linear or branched alkyl group having 1 to 5 carbon atoms or an acyl group having 1 to 6 carbon atoms, two R 2 s may be the same as or different from each other, and n is an integer of 0 to 2. (A): at least one selected from the group consisting of organosilane represented by the following general formula (3-1), a hydrolyzate of the organosilane, and a partial condensate of the hydrolysate; (R 1 ) n -Si-(OR 2 ) 4-n (3-1) in the formula, R 1 is a monovalent organic group having 1 to 8 carbon atoms, two R 1 s may be the same as or different from each other, R 2 is a linear or branched alkyl group having 1 to 5 carbon atoms or an acyl group having 1 to 6 carbon atoms, two R 2 s may be the same as or different from each other, and n is an integer of 0 to 2.