mhurhangee/ep-ind-claims huggingface dataset:
An information processing apparatus comprising: a storing unit for storing a first number identifying the information processing apparatus; a short distance communication unit configured to receive a second number from another information processing apparatus by short distance wireless communication, the second number identifying the other information processing apparatus; a wireless communication unit, different from said short distance communication unit, configured to perform wireless communication; a comparing unit configured to compare the first number with the second number; and a determining unit configured to determine, based on a result of the comparison, whether to request a connection in order to establish wireless communication using the wireless communication unit, with the other information processing apparatus, wherein the request is transmitted from the information processing apparatus to the other information processing apparatus. a storing unit for storing a first number identifying the information processing apparatus; a short distance communication unit configured to receive a second number from another information processing apparatus by short distance wireless communication, the second number identifying the other information processing apparatus; a wireless communication unit, different from said short distance communication unit, configured to perform wireless communication; a comparing unit configured to compare the first number with the second number; and a determining unit configured to determine, based on a result of the comparison, whether to request a connection in order to establish wireless communication using the wireless communication unit, with the other information processing apparatus, wherein the request is transmitted from the information processing apparatus to the other information processing apparatus.
A delivery catheter for delivering an implant to a location of the body comprising: a member comprising a hook; a rotational driver comprising a hook that is configured to connect with the hook of the member, wherein the rotational driver is configured to be connected to the member, wherein a rotational force can be transferred from the rotational driver to the member, wherein the rotational driver and the member are configured to be disengaged; a tubular cover, wherein in the connected position, the hook of the rotational driver is clasped to the hook of the member and the hooks (1406, 1407) are configured to be positioned inside the tubular cover; characterized in that the rotational driver comprises a stopper, which is configured to be positioned in a ridge in tubular cover. a member comprising a hook; a rotational driver comprising a hook that is configured to connect with the hook of the member, wherein the rotational driver is configured to be connected to the member, wherein a rotational force can be transferred from the rotational driver to the member, wherein the rotational driver and the member are configured to be disengaged; a tubular cover, wherein in the connected position, the hook of the rotational driver is clasped to the hook of the member and the hooks (1406, 1407) are configured to be positioned inside the tubular cover; characterized in that the rotational driver comprises a stopper, which is configured to be positioned in a ridge in tubular cover.
Process for the preparation of a colloidal suspension of nanoparticles composed, at least in part, of a rare earth fluoride, characterized in that said fluoride is obtained, by reaction in solution, between the corresponding rare earth salt and from a charge transfer complex of formula: in which: - Ra and Rb, which are identical or different, represent, each independently of one another, a (C 1 -C 6)alkyl, (C 3 -C 7)cycloalkyl, phenyl or 5- or 6-membered heterocycloalkyl group, said group being optionally substituted, or else Ra and Rb are linked together to form an optionally substituted alkylene chain comprising from 2 to 6 carbon atoms, and - Rc represents a hydrogen atom or a (C 1 -C 6)alkyl, (C 3 -C 7)cycloalkyl, phenyl or 5- or 6-membered heterocycloalkyl group, said group being optionally substituted, or else Rb and Rc are linked together to form an optionally substituted alkylene chain comprising from 2 to 5 carbon atoms. - Ra and Rb, which are identical or different, represent, each independently of one another, a (C 1 -C 6)alkyl, (C 3 -C 7)cycloalkyl, phenyl or 5- or 6-membered heterocycloalkyl group, said group being optionally substituted, or else Ra and Rb are linked together to form an optionally substituted alkylene chain comprising from 2 to 6 carbon atoms, and - Rc represents a hydrogen atom or a (C 1 -C 6)alkyl, (C 3 -C 7)cycloalkyl, phenyl or 5- or 6-membered heterocycloalkyl group, said group being optionally substituted, or else Rb and Rc are linked together to form an optionally substituted alkylene chain comprising from 2 to 5 carbon atoms.
A method for producing a heatsink comprising at least one base plate, a cover plate, and a fluid passage arranged between the base plate and the cover plate for conducting through a coolant fluid, comprising at least one turbulator, wherein at least a part of the components of the heatsink are connected to one another in an integrally-joined manner by induction soldering, comprising the following method steps: - assembling the components of the heatsink in the predetermined position thereof, - inserting the heatsink between respective pressure plates (11, 12) of an induction heating device, characterized in that - the fluid passage comprises at least one turbulator, and the method comprises the following further method steps: - pressing together and soldering the components of the heatsink by switching on the induction coils of the induction heating device, and - on the side of the cover plate facing away from the base plate and/or on the side of the base plate facing away from the cover plate, integrated contours for fixing and/or spacing apart the at least one structural element to be cooled are embossed during the soldering procedure, by way of correspondingly formed pressure plates (11, 12) of the induction heating device, into the base plate and/or the cover plate, which are softened at soldering temperature. - assembling the components of the heatsink in the predetermined position thereof, - inserting the heatsink between respective pressure plates (11, 12) of an induction heating device, characterized in that - the fluid passage comprises at least one turbulator, and the method comprises the following further method steps: - pressing together and soldering the components of the heatsink by switching on the induction coils of the induction heating device, and - on the side of the cover plate facing away from the base plate and/or on the side of the base plate facing away from the cover plate, integrated contours for fixing and/or spacing apart the at least one structural element to be cooled are embossed during the soldering procedure, by way of correspondingly formed pressure plates (11, 12) of the induction heating device, into the base plate and/or the cover plate, which are softened at soldering temperature. - pressing together and soldering the components of the heatsink by switching on the induction coils of the induction heating device, and - on the side of the cover plate facing away from the base plate and/or on the side of the base plate facing away from the cover plate, integrated contours for fixing and/or spacing apart the at least one structural element to be cooled are embossed during the soldering procedure, by way of correspondingly formed pressure plates (11, 12) of the induction heating device, into the base plate and/or the cover plate, which are softened at soldering temperature.
A field-effect transistor (10, 20) comprising, on a substrate (1, 100), a source electrode, a drain electrode, and a gate electrode; a semiconductor layer in contact with the source electrode and the drain electrode; wires individually electrically connected to the source electrode and the drain electrode; and a gate insulating layer that insulates the semiconductor layer from the gate electrode; wherein a connecting portion between the source electrode and the wire forms a continuous phase, and a connecting portion between the drain electrode and the wire forms a continuous phase without a connection surface, the portions constituting the continuous phases contain at least an electrically conductive component and an organic component, characterised in that integrated values of optical reflectance in a region of a wavelength of 600 nm or more and 900 nm or less on the wires are higher than integrated values of optical reflectance in a region of a wavelength of 600 nm or more and 900 nm or less on the source electrode and the drain electrode, wherein arithmetic surface roughnesses of the source electrode and the drain electrode are larger than an arithmetic surface roughnesses of the wires. a source electrode, a drain electrode, and a gate electrode; a semiconductor layer in contact with the source electrode and the drain electrode; wires individually electrically connected to the source electrode and the drain electrode; and a gate insulating layer that insulates the semiconductor layer from the gate electrode; wherein a connecting portion between the source electrode and the wire forms a continuous phase, and a connecting portion between the drain electrode and the wire forms a continuous phase without a connection surface, the portions constituting the continuous phases contain at least an electrically conductive component and an organic component, characterised in that integrated values of optical reflectance in a region of a wavelength of 600 nm or more and 900 nm or less on the wires are higher than integrated values of optical reflectance in a region of a wavelength of 600 nm or more and 900 nm or less on the source electrode and the drain electrode, wherein arithmetic surface roughnesses of the source electrode and the drain electrode are larger than an arithmetic surface roughnesses of the wires.
A server node for use in a communications network adapted to reduce undesired energy consumption of the server node, wherein the node is: - arranged to receive a request message from a client by a communication unit, the request message containing message fields comprising at least a message ID field and an integrity indication field containing a first integrity indication, - arranged to determine a relation key by performing a calculation by usage of a master key commonly known by the server node and an authorization engine and at least data comprised in the message ID field, - arranged to calculate a second integrity indication based on a subset of the message fields by usage of the relation key, wherein the subset excludes at least one message field that is predictable by a trusted client, wherein the second integrity indication is calculated by splitting the relation key into two parts: a and b; determining a dynamic value c updated for each request message (m) in a relation; and calculating the second integrity indication by usage of a Galois Field Transformation: v i = (m_0 i + a*m_1 i)*b + c i. - arranged to verify the subset of the message fields by comparing the first and second integrity indications, and - arranged to determine the message to be authorized when the comparison indicates equality, - wherein when the message is not authorized, suppressing reception of the message. - arranged to receive a request message from a client by a communication unit, the request message containing message fields comprising at least a message ID field and an integrity indication field containing a first integrity indication, - arranged to determine a relation key by performing a calculation by usage of a master key commonly known by the server node and an authorization engine and at least data comprised in the message ID field, - arranged to calculate a second integrity indication based on a subset of the message fields by usage of the relation key, wherein the subset excludes at least one message field that is predictable by a trusted client, wherein the second integrity indication is calculated by splitting the relation key into two parts: a and b; determining a dynamic value c updated for each request message (m) in a relation; and calculating the second integrity indication by usage of a Galois Field Transformation: v i = (m_0 i + a*m_1 i)*b + c i. - arranged to verify the subset of the message fields by comparing the first and second integrity indications, and - arranged to determine the message to be authorized when the comparison indicates equality, - wherein when the message is not authorized, suppressing reception of the message.
A reaction vessel comprising: a chemical heat storage material for generating water vapor by reaction heat that is generated when the chemical heat storage material reacts with water, and storing heat by heating to separate water from the chemical heat storage material; and a heat exchanger that internally houses the chemical heat storage material, wherein the heat exchanger comprises: a heat storage material housing space in which the chemical heat storage material is housed, characterized in that the heat exchanger further comprises: a water flow path comprised with a plurality of ejection outlets in communication with the heat storage material housing space, a main tube connected to an external water supply section, and a branch tube in communication with the main tube and the plurality of ejection outlets, and a heating medium flow path through which a heating medium is caused to flow for heating the chemical heat storage material, whereby the plurality of ejection outlets is arrayed in a staggered formation. a chemical heat storage material for generating water vapor by reaction heat that is generated when the chemical heat storage material reacts with water, and storing heat by heating to separate water from the chemical heat storage material; and a heat exchanger that internally houses the chemical heat storage material, wherein the heat exchanger comprises: a heat storage material housing space in which the chemical heat storage material is housed, characterized in that the heat exchanger further comprises: a water flow path comprised with a plurality of ejection outlets in communication with the heat storage material housing space, a main tube connected to an external water supply section, and a branch tube in communication with the main tube and the plurality of ejection outlets, and a heating medium flow path through which a heating medium is caused to flow for heating the chemical heat storage material, whereby a heat storage material housing space in which the chemical heat storage material is housed, characterized in that the heat exchanger further comprises: a water flow path comprised with a plurality of ejection outlets in communication with the heat storage material housing space, a main tube connected to an external water supply section, and a branch tube in communication with the main tube and the plurality of ejection outlets, and a heating medium flow path through which a heating medium is caused to flow for heating the chemical heat storage material, whereby a water flow path comprised with a plurality of ejection outlets in communication with the heat storage material housing space, a main tube connected to an external water supply section, and a branch tube in communication with the main tube and the plurality of ejection outlets, and a heating medium flow path through which a heating medium is caused to flow for heating the chemical heat storage material, whereby the plurality of ejection outlets is arrayed in a staggered formation.
A fluid collection device which extends between a first end region and a second end region and comprises: a fluid impermeable barrier at least partially defining a chamber, the fluid impermeable barrier also defining an opening extending therethrough, the opening configured to be positioned adjacent to a female urethra or have a male urethra positioned therethrough; at least one porous material disposed in the chamber; the device being characterised by further comprising: at least one shapeable material which extends from the first end region to the second end region and which is capable of being shaped to retain a selected geometric configuration whereby the fluid collection device has capability to be shaped into, and retain a selected shape, and to retain, a geometric configuration which is complementary to contours of anatomy of a wearer in a region proximate to the urethra of the wearer. a fluid impermeable barrier at least partially defining a chamber, the fluid impermeable barrier also defining an opening extending therethrough, the opening configured to be positioned adjacent to a female urethra or have a male urethra positioned therethrough; at least one porous material disposed in the chamber; the device being characterised by further comprising: at least one shapeable material which extends from the first end region to the second end region and which is capable of being shaped to retain a selected geometric configuration whereby the fluid collection device has capability to be shaped into, and retain a selected shape, and to retain, a geometric configuration which is complementary to contours of anatomy of a wearer in a region proximate to the urethra of the wearer.
A method for electrochemically depositing an ionically conducting, electrically insulating coating onto the surface of an electrode material, comprising: preparing a solution comprising at least one diazonium initiator species dissolved in a solvent, wherein the at least one diazonium initiator species is capable of being reduced forming a radical species when an electron is injected from the electrode material into the diazonium initiator species, and wherein the at least one reduced diazonium initiator species is chemisorbed onto the electrode material surface; and at least one monomeric species having at least one vinyl group, or vinyl group derivative, thereon; submersing an electrode effective for reducing at least one initiator species into the solution; applying an electric potential between the electrode material and the second electrode effective for reducing the at least one initiator species; and submersing the electrode material into the solution; whereby polymerization of the at least one monomeric species is induced by the reduction of the at least one diazonium initiator species forming a coating which is bonded to the surface of the electrode material. preparing a solution comprising at least one diazonium initiator species dissolved in a solvent, wherein the at least one diazonium initiator species is capable of being reduced forming a radical species when an electron is injected from the electrode material into the diazonium initiator species, and wherein the at least one reduced diazonium initiator species is chemisorbed onto the electrode material surface; and at least one monomeric species having at least one vinyl group, or vinyl group derivative, thereon; submersing an electrode effective for reducing at least one initiator species into the solution; applying an electric potential between the electrode material and the second electrode effective for reducing the at least one initiator species; and submersing the electrode material into the solution; whereby polymerization of the at least one monomeric species is induced by the reduction of the at least one diazonium initiator species forming a coating which is bonded to the surface of the electrode material.
Safety system for cleaning the bottom and side walls of a swimming pool subjected to cleaning by means of an aspiration brush, said aspiration brush being controlled from the edge of said swimming pool by means of a telescopic handle; said safety apparatus for cleaning swimming pools further comprising: • an aspiration and cleaning nozzle provided with a hydraulic fitting equipped with a magnetic switch, said magnetic switch being electrically connected to an electrical control panel; • a floating tube connected to said aspiration brush, whereby a free end of said floating tube is provided with a hydraulic fitting equipped with a magnet, said magnet and said hydraulic fitting having a shape corresponding to said magnetic switch and said hydraulic fitting of the the aspiration and cleaning nozzle; • a three-way hydraulic valve connected to the aspiration manifold of said swimming pool, said three-way hydraulic valve being able to switch the aspiration between the aspiration duct connected to the skimmers or the compensation tank and the aspiration and cleaning nozzle of said swimming pool; • an electromechanical actuator able to operate said three-way hydraulic valve; said electromechanical actuator being connected to said electrical panel by a low-voltage wiring; said actuator being controlled by said magnetic switch. • an aspiration and cleaning nozzle provided with a hydraulic fitting equipped with a magnetic switch, said magnetic switch being electrically connected to an electrical control panel; • a floating tube connected to said aspiration brush, whereby a free end of said floating tube is provided with a hydraulic fitting equipped with a magnet, said magnet and said hydraulic fitting having a shape corresponding to said magnetic switch and said hydraulic fitting of the the aspiration and cleaning nozzle; • a three-way hydraulic valve connected to the aspiration manifold of said swimming pool, said three-way hydraulic valve being able to switch the aspiration between the aspiration duct connected to the skimmers or the compensation tank and the aspiration and cleaning nozzle of said swimming pool; • an electromechanical actuator able to operate said three-way hydraulic valve; said electromechanical actuator being connected to said electrical panel by a low-voltage wiring; said actuator being controlled by said magnetic switch.
A composite clutch (20, 120, 220) for transmitting an operational range of torques from a driving member to a driven member, comprising: a friction clutch assembly (34, 134, 234) including a number of first friction clutch members coupled to the driving member and a number of second friction clutch members coupled to the driven member; a dog clutch assembly (36, 136, 236) including a first dog member coupled to the driving member, a second dog member coupled to the driven member, a dog arm slidably coupled to the second dog member, and a spring disposed between the dog arm and the second dog member biasing the dog arm in a retracted position spaced from the first dog member; and an actuator assembly (60, 160, 260) operatively coupled to the dog clutch assembly (36, 136, 236) characterized in that the dog clutch assembly is movable between a disengaged position to an engaged position in which the dog clutch assembly mechanically connects the driving member to the driven member, and the dog clutch assembly includes the first dog member splined to the driving member and the second dog member splined to the driven member. a friction clutch assembly (34, 134, 234) including a number of first friction clutch members coupled to the driving member and a number of second friction clutch members coupled to the driven member; a dog clutch assembly (36, 136, 236) including a first dog member coupled to the driving member, a second dog member coupled to the driven member, a dog arm slidably coupled to the second dog member, and a spring disposed between the dog arm and the second dog member biasing the dog arm in a retracted position spaced from the first dog member; and an actuator assembly (60, 160, 260) operatively coupled to the dog clutch assembly (36, 136, 236) characterized in that the dog clutch assembly is movable between a disengaged position to an engaged position in which the dog clutch assembly mechanically connects the driving member to the driven member, and the dog clutch assembly includes the first dog member splined to the driving member and the second dog member splined to the driven member.