mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a support structure configured to at least partially enclose an appendage of a user, said support structure defining an inner side and an outer side; and a first section of flexible circuitry disposed towards the inner side of the support structure ; wherein the first section of flexible circuitry is separate from the support structure and is comprised in a wearable sensor element separate from the support structure ; wherein the support structure comprises: a first attachment mechanism for attaching the support structure to the appendage; and wherein the wearable sensor element comprises a second attachment mechanism, different from the first attachment mechanism, for attaching the wearable sensor element to the appendage, characterised in that the support structure further comprise a rigid section comprising electronic components for controlling the wearable sensor element . a support structure configured to at least partially enclose an appendage of a user, said support structure defining an inner side and an outer side; and a first section of flexible circuitry disposed towards the inner side of the support structure ; wherein the first section of flexible circuitry is separate from the support structure and is comprised in a wearable sensor element separate from the support structure ; wherein the support structure comprises: a first attachment mechanism for attaching the support structure to the appendage; and wherein the wearable sensor element comprises a second attachment mechanism, different from the first attachment mechanism, for attaching the wearable sensor element to the appendage, characterised in that the support structure further comprise a rigid section comprising electronic components for controlling the wearable sensor element .
A kit for quantitatively determining a substance to be measured in a biological sample, the kit comprising: fluorescent particles that have a first binding substance capable of binding to the substance to be measured; and a substrate that has a detection region having a second binding substance, wherein the substance to be measured includes at least three types of substances having different structures, and the first binding substance includes at least three types of binding substances which are capable of binding to the at least three types of substances having different structures, respectively, wherein the second binding substance is capable of binding to the at least three types of binding substances of the first binding substance or is capable of binding to the substance to be measured, and each fluorescent particle of the fluorescent particles has the at least three types of binding substances. fluorescent particles that have a first binding substance capable of binding to the substance to be measured; and a substrate that has a detection region having a second binding substance, wherein the substance to be measured includes at least three types of substances having different structures, and the first binding substance includes at least three types of binding substances which are capable of binding to the at least three types of substances having different structures, respectively, wherein the second binding substance is capable of binding to the at least three types of binding substances of the first binding substance or is capable of binding to the substance to be measured, and each fluorescent particle of the fluorescent particles has the at least three types of binding substances.
Cutter system for an electric shaver and/or trimmer, comprising a pair of cooperating first and second cutting elements movably supported relative to each other by a support structure , said first cutting element being provided in a flat plate-like configuration having a skin top side, two lateral non hair cutting sides and two longitudinal sides each with a row of first cutting teeth , a motor driving said second cutting element in a movement direction, said second cutting element being provided on each of its longitudinal sides which extend parallel to the movement direction with a row of second cutting teeth and a flat main portion connecting both rows of second cutting teeth, said second cutting element has a top side directed towards the first cutting element and an underside directed towards the support structure , wherein at least some of the second cutting teeth are uncovered at least at its tip portion at the underside of the second cutting element forming a discharge area for cut hair stubbles, the second cutting element is sandwiched between the first cutting element and said support structure , wherein said support structure includes at least one spacer defining a gap in which the sandwiched cutting element is movably received, wherein said spacer forms a sliding guide for guiding the sandwiched cutting element reciprocating or rotate along said spacer and having a guiding recess in which the spacer is received, wherein said support structure includes a support element , wherein said support element , said spacer and said other cutting element are rigidly connected to each other and form a rigid sandwiching frame having a gap in which the sandwiched cutting element is slidably received and wherein said spacer and thus said gap having a thickness larger than the thickness of the sandwiched cutting element by an amount smaller than 40 μm.
A method for reporting channel state information, CSI, in a multiple-input multiple-output, MIMO, communication system, comprising: receiving a plurality of signals via a plurality of receive antennas, wherein the received signal from each receive antenna comprises a combination of one or more signals transmitted from a transmitter unit; processing the plurality of received signals to derive channel state information, CSI, indicative of characteristics of a plurality of transmission channels used for data transmission, wherein the CSI comprises: sufficient information for the transmitter unit to calculate eigenvalues and eigenmodes for each frequency subchannel utilized in downlink transmissions; transmitting the CSI back to the transmitter unit; and transmitting differential updates to the CSI back to the transmitter unit. receiving a plurality of signals via a plurality of receive antennas, wherein the received signal from each receive antenna comprises a combination of one or more signals transmitted from a transmitter unit; processing the plurality of received signals to derive channel state information, CSI, indicative of characteristics of a plurality of transmission channels used for data transmission, wherein the CSI comprises: sufficient information for the transmitter unit to calculate eigenvalues and eigenmodes for each frequency subchannel utilized in downlink transmissions; transmitting the CSI back to the transmitter unit; and transmitting differential updates to the CSI back to the transmitter unit.
A method performed in a client device for setting up a connection with a server device , the client device and the server device supporting a Light Weight Machine to Machine, LWM2M protocol, the method comprising: - setting up one of a Datagram Transport Layer Security, DTLS, and a Transport Layer Security, TLS, connection with a bootstrap server , - performing a bootstrapping procedure with the bootstrap server , comprising generating a temporary identity of the client device, and indicating, during the bootstrapping procedure, that the bootstrap server is to set up one the DTLS and TLS connection to the server device on behalf of the client device , wherein the indicating comprises delegating the generated temporary identity of the client device to the bootstrap server , - receiving , from the bootstrap server , a session ticket and a session key, and - setting up the connection to the server device as one of a DTLS and TLS session resumption procedure using the received session ticket and session key. - setting up one of a Datagram Transport Layer Security, DTLS, and a Transport Layer Security, TLS, connection with a bootstrap server , - performing a bootstrapping procedure with the bootstrap server , comprising generating a temporary identity of the client device, and indicating, during the bootstrapping procedure, that the bootstrap server is to set up one the DTLS and TLS connection to the server device on behalf of the client device , wherein the indicating comprises delegating the generated temporary identity of the client device to the bootstrap server , - receiving , from the bootstrap server , a session ticket and a session key, and - setting up the connection to the server device as one of a DTLS and TLS session resumption procedure using the received session ticket and session key.
A user equipment, UE , comprising: a control module configured to determine that a media file requires a file repair; and a transmission and reception module configured to initiate a file repair session to request HyperText Transfer Protocol, HTTP-based file repair for the media file, characterized in that the media file is downloaded over a Multimedia Broadcast Multicast Service, MBMS, bearer from an Internet Protocol Multimedia Subsystem, IMS, network component, and wherein transmission and reception module configured to: initiate said file repair session by sending a Session Initiation Protocol, SIP, re-invite request including a request for a HyperText Transfer Protocol, HTTP-based filerepair for a file to the IMS network component; and receive a SIP response message from the IMS network component. a control module configured to determine that a media file requires a file repair; and a transmission and reception module configured to initiate a file repair session to request HyperText Transfer Protocol, HTTP-based file repair for the media file, characterized in that the media file is downloaded over a Multimedia Broadcast Multicast Service, MBMS, bearer from an Internet Protocol Multimedia Subsystem, IMS, network component, and wherein transmission and reception module configured to: initiate said file repair session by sending a Session Initiation Protocol, SIP, re-invite request including a request for a HyperText Transfer Protocol, HTTP-based filerepair for a file to the IMS network component; and receive a SIP response message from the IMS network component. initiate said file repair session by sending a Session Initiation Protocol, SIP, re-invite request including a request for a HyperText Transfer Protocol, HTTP-based filerepair for a file to the IMS network component; and receive a SIP response message from the IMS network component.
An injection mold stack (IMS) comprising a core assembly and a cavity assembly , wherein the core assembly comprises a central core surrounded by an external lock ring and at least a portion of the core assembly is adapted to delimit a molding cavity (MC) with the cavity assembly , wherein the cavity assembly comprises a cavity insert and a neck ring that is positioned between the cavity insert and the core assembly , wherein the said neck ring comprises a front locking cavity and a front male locking portion oriented towards the core assembly, wherein the front locking cavity comprises a front opening oriented towards the core assembly , and a lateral wall of conical shape whose apex is oriented towards the cavity insert , wherein the front male locking portion comprises an outer wall of conical shape, whose apex is oriented towards the core assembly , and that surrounds the front locking cavity , wherein the external lock ring of the core assembly comprises a rear male locking portion and a rear annular cavity oriented towards the neck ring , wherein the rear male locking portion comprises an outer wall of conical shape whose apex is oriented towards the neck ring , wherein the rear annular cavity surrounds the said rear male locking portion , and comprises an annular opening oriented towards the neck ring , and a lateral wall of conical shape whose base is oriented towards the neck ring , wherein the conical front locking cavity , the conical front male locking portion , the conical rear male locking portion and the conical annular rear cavity are adapted to align and lock the core assembly with the neck ring by translating longitudinally the core assembly towards the neck ring or vice versa, so that the conical rear male locking portion is fitted into the conical front locking cavity and the conical front male locking portion is fitted into the conical rear annular cavity , the injection mold stack further comprising at least first (V1) and second (V2) venting channels for escaping air from the mold cavity (MC), wherein the first venting channel (V1) comprises a first venting portion (S) that communicates with the mold cavity (MC), and that is defined between the rear male locking portion of the external lock ring and the neck ring , and the second venting channel (V2) comprises a second venting portion (S'), that communicates with the mold cavity (MC), and that is defined between the rear male locking portion of the external lock ring and the central core .
A hydrogenation catalyst, comprising: a nanonickel carrier constituted by one-dimensional nickel nanowires; and noble metal nanoparticles selected from palladium, platinum, ruthenium, rhodium or a mixture thereof, wherein the noble metal nanoparticles are mounted onto the nanonickel carrier. a nanonickel carrier constituted by one-dimensional nickel nanowires; and noble metal nanoparticles selected from palladium, platinum, ruthenium, rhodium or a mixture thereof, wherein the noble metal nanoparticles are mounted onto the nanonickel carrier.
A cargo transport system for storing and transporting perishable products , the cargo transport system comprising: a container defining a space for transporting the perishable products; a control assembly constructed and arranged to control an environment parameter of the space; a sensor configured to measure the environment parameter and send a parameter signal indicative of an environment parameter measurement; a detector constructed and arranged to be directly secured to the perishable products for measuring a condition of the perishable products, and configured to send a condition signal indicative of the condition; and a control module configured to receive and process the condition and parameter signals and send a command signal to the control assembly for adjusting the environment parameter; wherein the condition signal is a wireless signal sent via a transmitter circuit of the detector and received by a receiver circuit of the control module , and wherein the measured condition of the perishable products includes color and/or firmness. a container defining a space for transporting the perishable products; a control assembly constructed and arranged to control an environment parameter of the space; a sensor configured to measure the environment parameter and send a parameter signal indicative of an environment parameter measurement; a detector constructed and arranged to be directly secured to the perishable products for measuring a condition of the perishable products, and configured to send a condition signal indicative of the condition; and a control module configured to receive and process the condition and parameter signals and send a command signal to the control assembly for adjusting the environment parameter; wherein the condition signal is a wireless signal sent via a transmitter circuit of the detector and received by a receiver circuit of the control module , and wherein the measured condition of the perishable products includes color and/or firmness.
Method for managing a regeneration of a particulate filter (DPF), the particulate filter comprising an inlet and an outlet, the method comprising carrying out a first checking process of a first condition determining interruption of a regeneration process, as function of a differential pressure calculated between said inlet and said outlet of the particulate filter, and simultaneously carrying out a second checking process of a second condition determining interruption of said regeneration process, as function of a temperature measured at the outlet of the particulate filter, and wherein the method interrupts said regeneration process when at least one of said first and second checking processes returns a positive outcome.
A locking device for securing a wear element in a support in an earth moving machine, comprising: - a central shaft with a first right hand threaded segment and defining a first rotation axis and a second left hand threaded segment defining a second rotation axis, - a first locking element screwed onto said first threaded segment and a second locking element screwed on said second threaded segment , - screwing means in at least one of the ends of said central shaft and accessible from the outside through at least one of said locking elements , where said first threaded segment and said second threaded segment are attached to one another by coupling means , where said coupling means are suitable for transmitting rotational movement between said first threaded segment and said second threaded segment , characterized in that said coupling means comprise a disc with a rotation axis and with a first face opposite one end of said first threaded segment and a second face opposite one end of said second threaded segment , where between said first face and the end of the first threaded segment there is a first tongue and groove extending according to a first diameter, such that said disc and said first threaded segment are suitable for moving with respect to one another according to said first diameter, and between said second face and the end of the second threaded segment there is a second tongue and groove extending according to a second diameter, such that said disc and said second threaded segment are suitable for moving with respect to one another according to said second diameter. - a central shaft with a first right hand threaded segment and defining a first rotation axis and a second left hand threaded segment defining a second rotation axis, - a first locking element screwed onto said first threaded segment and a second locking element screwed on said second threaded segment , - screwing means in at least one of the ends of said central shaft and accessible from the outside through at least one of said locking elements ,
A non-lethal paintball projectile comprising a front portion and a body portion , which body portion comprises a side wall , wherein the projectile comprises: - a body component , which is a single piece forming outer surfaces of the front portion and the side wall , - a closed cavity in the interior volume of the front portion , and - a fill in the closed cavity , wherein - a length of the projectile is at least 15 mm and preferably equal to or less than 19 mm, - a length of the front portion is equal to or less than 9.7 mm, and preferably at least 7.5 mm, wherein the projectile further comprises: - a middle component in the interior volume of the body component , the middle component having a first side and a second side, wherein - the first side of the middle component is facing the closed cavity , - the projectile further comprises an open cavity in the interior volume of the body portion , - the second side of the middle component is facing the open cavity , characterized in that - the projectile further comprises a barrier layer on the second side of the middle component . - a body component , which is a single piece forming outer surfaces of the front portion and the side wall , - a closed cavity in the interior volume of the front portion , and - a fill in the closed cavity , wherein - a length of the projectile is at least 15 mm and preferably equal to or less than 19 mm, - a length of the front portion is equal to or less than 9.7 mm, and preferably at least 7.5 mm, - a middle component in the interior volume of the body component , the middle component having a first side and a second side, wherein - the first side of the middle component is facing the closed cavity , - the projectile further comprises an open cavity in the interior volume of the body portion , - the second side of the middle component is facing the open cavity , characterized in that - the projectile further comprises a barrier layer on the second side of the middle component .
A manufacturing method for manufacturing a surface-emitting laser device made of a GaN-based semiconductor by an MOVPE method, the manufacturing method comprising steps of: (a) growing a first cladding layer of a first conductive type on a substrate, with a plane as a growth plane; (b) growing a guide layer of the first conductive type on the first cladding layer; (c) forming holes in a surface of the guide layer by etching, the holes being two-dimensionally periodically arranged within a plane parallel to the guide layer; (d) etching the guide layer by inductive coupled plasma reactive ion etching (ICP-RIE) using a chlorine-based gas and an argon gas; (e) supplying a gas containing a nitrogen source to cause mass transport without supplying a group-III material gas, and then supplying the group-III material gas for growth, whereby a first embedding layer closing openings of the holes is formed to form a photonic crystal layer; and (f) growing an active layer and a second cladding layer of a second conductive type in this order on the first embedding layer, the second conductive type being opposite to the first conductive type, wherein the step (d) includes a step of referring to already-obtained data on a relationship of an attraction voltage and a ratio of the chlorine-based gas to the argon gas in the ICP-RIE with a diameter distribution of air holes embedded in the photonic crystal layer, and applying the attraction voltage and the ratio of the chlorine-based gas to the argon gas to the ICP-RIE on a basis of the data. (a) growing a first cladding layer of a first conductive type on a substrate, with a plane as a growth plane; (b) growing a guide layer of the first conductive type on the first cladding layer; (c) forming holes in a surface of the guide layer by etching, the holes being two-dimensionally periodically arranged within a plane parallel to the guide layer; (d) etching the guide layer by inductive coupled plasma reactive ion etching (ICP-RIE) using a chlorine-based gas and an argon gas; (e) supplying a gas containing a nitrogen source to cause mass transport without supplying a group-III material gas, and then supplying the group-III material gas for growth, whereby a first embedding layer closing openings of the holes is formed to form a photonic crystal layer; and (f) growing an active layer and a second cladding layer of a second conductive type in this order on the first embedding layer, the second conductive type being opposite to the first conductive type, wherein