mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for use in performing impedance measurements on a subject, the apparatus including: a) a probe having a plurality of electrodes (113, 114, 115, 116), the probe being configured to allow at least some of the electrodes to be in contact with at least part of the subject; the probe including: i) a probe portion including the plurality of electrodes positioned at an end of the probe portion; and, ii) a handle portion, the probe portion being removably attached to the handle portion allowing the probe portion to be replaced; and, b) a processing system (102, 420) for: i) determining at least one first impedance value, based on signals measured at a site using a first electrode configuration; ii) determining at least one second impedance value, based on signals measured at the site using a second electrode configuration; and, iii) determining an indicator indicative of the presence, absence or degree of an anomaly using a difference between the first and second impedance values. a) a probe having a plurality of electrodes (113, 114, 115, 116), the probe being configured to allow at least some of the electrodes to be in contact with at least part of the subject; the probe including: i) a probe portion including the plurality of electrodes positioned at an end of the probe portion; and, ii) a handle portion, the probe portion being removably attached to the handle portion allowing the probe portion to be replaced; and, i) a probe portion including the plurality of electrodes positioned at an end of the probe portion; and, ii) a handle portion, the probe portion being removably attached to the handle portion allowing the probe portion to be replaced; and, b) a processing system (102, 420) for: i) determining at least one first impedance value, based on signals measured at a site using a first electrode configuration; ii) determining at least one second impedance value, based on signals measured at the site using a second electrode configuration; and, iii) determining an indicator indicative of the presence, absence or degree of an anomaly using a difference between the first and second impedance values. i) determining at least one first impedance value, based on signals measured at a site using a first electrode configuration; ii) determining at least one second impedance value, based on signals measured at the site using a second electrode configuration; and, iii) determining an indicator indicative of the presence, absence or degree of an anomaly using a difference between the first and second impedance values.
An annular bead ring formed from a bead wire that has been subjected to wire drawing, the bead wire having a true strain ε of 2.80 or greater as calculated by Equation, and a tensile strength of 2000 MPa or greater; ε = ln d 0 / d 1 2 where d 0: wire diameter of the bead wire before wire drawing [mm], and d 1: wire diameter of the bead wire after wire drawing [mm], characterized in that the bead wire has a proof stress of 1700 MPa to 1980 MPa, and a wire residual rotation of the bead wire is 0 ± 0.25 times/6 m in the longitudinal direction. where d 0: wire diameter of the bead wire before wire drawing [mm], and d 1: wire diameter of the bead wire after wire drawing [mm], characterized in that the bead wire has a proof stress of 1700 MPa to 1980 MPa, and a wire residual rotation of the bead wire is 0 ± 0.25 times/6 m in the longitudinal direction.
A procedure for preparing F-18 labeled compounds comprising: providing a benzene derivative containing an iodyl group and replacing the iodyl group by an F-18 ion to produce an F-18 containing benzene derivative, the F-18 ion being free of a fluoride ion carrier. providing a benzene derivative containing an iodyl group and replacing the iodyl group by an F-18 ion to produce an F-18 containing benzene derivative, the F-18 ion being free of a fluoride ion carrier.
An adapter plate for attaching a CATV module to a wall outlet terminating a coaxial cable, the wall outlet comprising a first and a second RF connector; wherein the adapter plate comprises a plug substantially orthogonal to a surface of the plate, a hole for insertion of a RF connector of the CATV module, characterized in that the plug is designed to fit into the first RF connector (210, 230) of a first type of wall outlet; and the hole of the adapter plate locates at a distance from the plug such that when the plug is inserted into said first RF connector (210, 230), the hole is co-locatable with the second RF connector (220, 240) of the first type of wall outlet.
A sampling device for use in a method for reducing contamination in bodily-fluid samples, the sample device comprising: an inlet port configured to be fluidically coupled to the patient; a fluid reservoir; a flow control mechanism configured to selectively place the fluid reservoir in fluid communication with the inlet port; an actuator configured to: move a first distance to increase a volume of the fluid reservoir such that, in use, a volume of bodily-fluid flows into the fluid reservoir; and move a second distance to move the flow control mechanism from a first configuration, in which the flow control mechanism defines at least a portion of a first fluid flow path, to a second configuration, in which the flow control mechanism defines at least a portion of a second fluid flow path, the first fluid flow path defined between the inlet port and the fluid reservoir, the second fluid flow path defined between the inlet port and an outlet port or a sample reservoir. an inlet port configured to be fluidically coupled to the patient; a fluid reservoir; a flow control mechanism configured to selectively place the fluid reservoir in fluid communication with the inlet port; an actuator configured to: move a first distance to increase a volume of the fluid reservoir such that, in use, a volume of bodily-fluid flows into the fluid reservoir; and move a second distance to move the flow control mechanism from a first configuration, in which the flow control mechanism defines at least a portion of a first fluid flow path, to a second configuration, in which the flow control mechanism defines at least a portion of a second fluid flow path, the first fluid flow path defined between the inlet port and the fluid reservoir, the second fluid flow path defined between the inlet port and an outlet port or a sample reservoir. move a first distance to increase a volume of the fluid reservoir such that, in use, a volume of bodily-fluid flows into the fluid reservoir; and move a second distance to move the flow control mechanism from a first configuration, in which the flow control mechanism defines at least a portion of a first fluid flow path, to a second configuration, in which the flow control mechanism defines at least a portion of a second fluid flow path, the first fluid flow path defined between the inlet port and the fluid reservoir, the second fluid flow path defined between the inlet port and an outlet port or a sample reservoir.
A rotary press system, comprising: a first rotary press (105a; 802a); a second rotary press (105b; 802b) adjacent the first rotary press (105a; 802a), wherein the first and second rotary presses (105a, 105b; 802a, 802b) are to receive a strip material; a common drive gear (112; 808) coupled to the first and second rotary presses (105a, 105b; 802a, 802b); and wherein the common drive gear (112; 808) is to directly drive a first drive gear (110b; 804b) of the first rotary press (105a; 802a) and a second drive gear (210b; 806b) of the second rotary press (105b; 802b); characterized by a motor coupled to the common drive gear (112; 808) to rotate the common drive gear (112; 808) and to cause the first and second rotary presses (105a, 105b; 802a, 802b) to process the strip material; wherein the motor is to directly drive the common drive gear (112; 808) without interposing mechanism or transmission. a first rotary press (105a; 802a); a second rotary press (105b; 802b) adjacent the first rotary press (105a; 802a), wherein the first and second rotary presses (105a, 105b; 802a, 802b) are to receive a strip material; a common drive gear (112; 808) coupled to the first and second rotary presses (105a, 105b; 802a, 802b); and wherein the common drive gear (112; 808) is to directly drive a first drive gear (110b; 804b) of the first rotary press (105a; 802a) and a second drive gear (210b; 806b) of the second rotary press (105b; 802b); characterized by a motor coupled to the common drive gear (112; 808) to rotate the common drive gear (112; 808) and to cause the first and second rotary presses (105a, 105b; 802a, 802b) to process the strip material; wherein the motor is to directly drive the common drive gear (112; 808) without interposing mechanism or transmission.
A method for introducing a fluorine atom onto a biomolecule, comprising: (i) providing a linker including a thiol-reactive terminus and an azido or an alkyne-reactive terminus; (ii) reacting the thiol-reactive terminus of the linker with the biomolecule including at least one thiol group or a derivative of the thiol group which can be activated so as to generate the free thiol group; and (iii) subsequently reacting the azido or the alkyne-reactive terminus of the linker with a fluorine-substituted azide or alkyne group; wherein the linker is: or (i) providing a linker including a thiol-reactive terminus and an azido or an alkyne-reactive terminus; (ii) reacting the thiol-reactive terminus of the linker with the biomolecule including at least one thiol group or a derivative of the thiol group which can be activated so as to generate the free thiol group; and (iii) subsequently reacting the azido or the alkyne-reactive terminus of the linker with a fluorine-substituted azide or alkyne group;
A method of manufacturing non-planar derivative insulated ductwork comprising an intermediate insulating product, wherein the intermediate insulating product comprises a planar insulating layer having a protective layer on the surface of the planar insulating layer, said protective layer being adapted to reduce flaking or chipping of the planar insulating layer, the method comprising the steps of: forming a plurality of parallel channels into the surface of the planar insulating layer, wherein the channels comprise cross-sections with tapered sides and wherein the protective layer is provided on the surface of the planar insulating layer prior to forming the channels; applying a vapour proof layer to the resulting surface of the planar insulating layer and pressing the vapour proof layer into the channels by a suitable tool such that the vapour proof layer bridges the plurality of parallel channels, wherein the vapour proof layer comprises securing means formed on its surface and further comprises sealing means, and wherein the securing means are adapted to secure the vapour proof layer to the protective layer; bending, with subsequent mechanical manipulation, the intermediate insulating product in regions adjacent the bottom of the channels, thereby causing the channels to substantially close to form the non-planar, derivative insulated ductwork, such that the derivative insulated ductwork has an internal throughbore, wherein the vapour proof layer forms a vapour proof inner lining to the derivative insulated ductwork; and substantially sealing the internal throughbore with respect to the outside of the derivative insulated ductwork using the sealing means of the vapour proof layer. forming a plurality of parallel channels into the surface of the planar insulating layer, wherein the channels comprise cross-sections with tapered sides and wherein the protective layer is provided on the surface of the planar insulating layer prior to forming the channels; applying a vapour proof layer to the resulting surface of the planar insulating layer and pressing the vapour proof layer into the channels by a suitable tool such that the vapour proof layer bridges the plurality of parallel channels, wherein the vapour proof layer comprises securing means formed on its surface and further comprises sealing means, and wherein the securing means are adapted to secure the vapour proof layer to the protective layer; bending, with subsequent mechanical manipulation, the intermediate insulating product in regions adjacent the bottom of the channels, thereby causing the channels to substantially close to form the non-planar, derivative insulated ductwork, such that the derivative insulated ductwork has an internal throughbore, wherein the vapour proof layer forms a vapour proof inner lining to the derivative insulated ductwork; and substantially sealing the internal throughbore with respect to the outside of the derivative insulated ductwork using the sealing means of the vapour proof layer.
A method of operating an electronic device, the method comprising: detecting a first input with respect to a first domain name; detecting a second input with respect to a second domain name within a designated interval after the first input is detected; storing the second domain name as a domain name associated with the first domain name in a storage unit comprised in the electronic device, in response to detection of the second input; and transmitting a message for requesting information on an address corresponding to the first domain name and a message for requesting information on an address corresponding to the second domain name to a domain name system, DNS, server in response to detection of a third input with respect to the first domain name. detecting a first input with respect to a first domain name; detecting a second input with respect to a second domain name within a designated interval after the first input is detected; storing the second domain name as a domain name associated with the first domain name in a storage unit comprised in the electronic device, in response to detection of the second input; and transmitting a message for requesting information on an address corresponding to the first domain name and a message for requesting information on an address corresponding to the second domain name to a domain name system, DNS, server in response to detection of a third input with respect to the first domain name.
Manufacturing apparatus for a cosmetic composition, comprising a mixing machine comprising a receiving housing comprising a first receiving location configured to receive a first deformable capsule and a second receiving location, configured to receive a second deformable capsule, the first and second capsules (3,4) being intended to be fluidly connected to one another and containing respectively a first formulation and a second formulation, the mixing machine comprising at least one electrically powered actuation system configured to transmit a pressure force to the first and second capsules (3, 4) in order to move the contents of the first capsule into the second capsule, and vice versa, the mixing machine comprising an electric heating element configured to heat at least one of the first and second capsules (3, 4) when the first and second capsules (3, 4) are received in the mixing machine, the mixing machine being configured to implement a preparation phase prior to contact between the two formulations, wherein the actuation system and the heating element are alternately supplied with electricity. the mixing machine comprising at least one electrically powered actuation system configured to transmit a pressure force to the first and second capsules (3, 4) in order to move the contents of the first capsule into the second capsule, and vice versa, the mixing machine comprising an electric heating element configured to heat at least one of the first and second capsules (3, 4) when the first and second capsules (3, 4) are received in the mixing machine, the mixing machine being configured to implement a preparation phase prior to contact between the two formulations, wherein the actuation system and the heating element are alternately supplied with electricity.
A method of communicating data between a radio network infrastructure and a terminal device in a wireless telecommunications network, the method comprising: establishing at a radio network infrastructure element there is data available for communication between the radio network infrastructure and the terminal device; the method being characterized by: transmitting a paging message for the terminal device from the radio network infrastructure element, wherein the paging message comprises an indication of an identifier for the terminal device and an indication of a network allocated resource for use in subsequently communicating the data between the radio network infrastructure element and the terminal device; and communicating the data between the radio network infrastructure element and the terminal device using the network allocated resource. transmitting a paging message for the terminal device from the radio network infrastructure element, wherein the paging message comprises an indication of an identifier for the terminal device and an indication of a network allocated resource for use in subsequently communicating the data between the radio network infrastructure element and the terminal device; and communicating the data between the radio network infrastructure element and the terminal device using the network allocated resource.
Tyre provided with an outer sidewall, said outer sidewall comprising at least one rubber composition based on at least one elastomer, a reinforcing filler, a crosslinking system and more than 25 phr of a crumb rubber.
A wearable apparatus for biometric measurement, comprising: at least one light source (2,8); at least one photodetector; a first layer of optical material configured to embed the at least one light source; and a second layer of optical material configured to embed the at least one photodetector; and a first substrate layer on which the at least one light source is mounted, wherein: the first and second layers of optical material are configured to guide light from the at least one light source (2,8) to blood perfused tissue of a person using the apparatus when the apparatus is in use and to prevent light from the at least one light source (2,8) directly reaching the at least one photodetector; the second layer of optical material is configured to guide light from blood perfused tissue of a person using the apparatus towards the at least one photodetector when the apparatus is in use; the first substrate layer, first layer of optical material, and second layer of optical material are layers of a laminate, the first layer of optical material is positioned above the first substrate layer and the second layer of optical material is positioned above the first layer of optical material. at least one light source (2,8); at least one photodetector; a first layer of optical material configured to embed the at least one light source; and a second layer of optical material configured to embed the at least one photodetector; and a first substrate layer on which the at least one light source is mounted, wherein: the first and second layers of optical material are configured to guide light from the at least one light source (2,8) to blood perfused tissue of a person using the apparatus when the apparatus is in use and to prevent light from the at least one light source (2,8) directly reaching the at least one photodetector; the second layer of optical material is configured to guide light from blood perfused tissue of a person using the apparatus towards the at least one photodetector when the apparatus is in use; the first substrate layer, first layer of optical material, and second layer of optical material are layers of a laminate, the first layer of optical material is positioned above the first substrate layer and the second layer of optical material is positioned above the first layer of optical material. the first and second layers of optical material are configured to guide light from the at least one light source (2,8) to blood perfused tissue of a person using the apparatus when the apparatus is in use and to prevent light from the at least one light source (2,8) directly reaching the at least one photodetector; the second layer of optical material is configured to guide light from blood perfused tissue of a person using the apparatus towards the at least one photodetector when the apparatus is in use; the first substrate layer, first layer of optical material, and second layer of optical material are layers of a laminate, the first layer of optical material is positioned above the first substrate layer and the second layer of optical material is positioned above the first layer of optical material.
A non-contact, medical ultrasound therapy system for generating and controlling low frequency ultrasound, comprising: a non-contact treatment wand including an ultrasonic transducer configured to provide the low frequency ultrasound to a patient without contacting the patient; a generator unit configured to generate electric power output to drive the ultrasonic transducer to generate and control low frequency ultrasound, the generator unit comprising a digital frequency generator, wherein the generator unit digitally controls energy output at resonance frequency of the ultrasonic transducer; and a voltage vs. current phase detector configured to detect a voltage vs. current phase angle, and a cable coupling the non-contact treatment wand to the generator unit, wherein the generator unit is configured to adjust and lock an output frequency to the ultrasonic transducer in a phase-continuous manner at resonance for non-contact low-load conditions and for no-load conditions based on the voltage vs. current phase angle and digitally control energy output to the ultrasonic transducer; wherein the system is driven at a constant current which maintains constant output displacement. a non-contact treatment wand including an ultrasonic transducer configured to provide the low frequency ultrasound to a patient without contacting the patient; a generator unit configured to generate electric power output to drive the ultrasonic transducer to generate and control low frequency ultrasound, the generator unit comprising a digital frequency generator, wherein the generator unit digitally controls energy output at resonance frequency of the ultrasonic transducer; and a voltage vs. current phase detector configured to detect a voltage vs. current phase angle, and a cable coupling the non-contact treatment wand to the generator unit, wherein the generator unit is configured to adjust and lock an output frequency to the ultrasonic transducer in a phase-continuous manner at resonance for non-contact low-load conditions and for no-load conditions based on the voltage vs. current phase angle and digitally control energy output to the ultrasonic transducer; wherein the system is driven at a constant current which maintains constant output displacement.