mhurhangee/patent-ind-claim-en huggingface dataset:
An infusion set assembly adapted to be secured to a skin surface, comprising: an infusion set including a fixed base member connectable to the skin surface; a movable slide member having a rigid needle or cannula connected thereto, said needle or cannula being angularly inserted with respect to said skin surface, said movable slide member being movable relative to said fixed base member, said movable slide member being movable from a first position in which said needle or cannula is not exposed externally of said fixed base member to a second position in which said needle or cannula is exposed externally of said fixed base member; and a hub having a hole that fixedly receives said needle or cannula, said hub fixedly connected to said movable member and having a slot extending rearwardly in a lower surface from a first end thereof, said needle or cannula being received in said slot, a rounded protrusion surrounding said slot around which said needle can bend, thereby increasing a bending radius and reducing stress in the needle; and an inserter removably connected to said infusion set, said inserter including a movable inserter member and a fixed inserter member , said movable inserter member that slides into said fixed inserter member to cause said movable slide member to move from said first position to said second position. an infusion set including a fixed base member connectable to the skin surface; a movable slide member having a rigid needle or cannula connected thereto, said needle or cannula being angularly inserted with respect to said skin surface, said movable slide member being movable relative to said fixed base member, said movable slide member being movable from a first position in which said needle or cannula is not exposed externally of said fixed base member to a second position in which said needle or cannula is exposed externally of said fixed base member; and a fixed base member connectable to the skin surface; a movable slide member having a rigid needle or cannula connected thereto, said needle or cannula being angularly inserted with respect to said skin surface, said movable slide member being movable relative to said fixed base member, said movable slide member being movable from a first position in which said needle or cannula is not exposed externally of said fixed base member to a second position in which said needle or cannula is exposed externally of said fixed base member; and a hub having a hole that fixedly receives said needle or cannula, said hub fixedly connected to said movable member and having a slot extending rearwardly in a lower surface from a first end thereof, said needle or cannula being received in said slot, a rounded protrusion surrounding said slot around which said needle can bend, thereby increasing a bending radius and reducing stress in the needle; and an inserter removably connected to said infusion set, said inserter including a movable inserter member and a fixed inserter member , said movable inserter member that slides into said fixed inserter member to cause said movable slide member to move from said first position to said second position.
A camera assembly comprising: a camera body ; a camera lens ; a cradle that communicates signals between the camera body and the camera lens , wherein the cradle includes a bayonet mount to selectively receive modules; a short wave infrared sensor module selectively received within the cradle , and wherein the cradle includes a first portion positioned axially between the camera body and the short wave infrared sensor module when the short wave infrared sensor module is received within the cradle, and a second portion positioned axially between the short wave infrared sensor module and the camera lens when the short wave infrared sensor module is received within the cradle, and wherein the cradle includes a lid that is secured to the first portion and the second portion to secure the short wave infrared sensor module within the cradle . a camera body ; a camera lens ; a cradle that communicates signals between the camera body and the camera lens , wherein the cradle includes a bayonet mount to selectively receive modules; a short wave infrared sensor module selectively received within the cradle , and wherein the cradle includes a first portion positioned axially between the camera body and the short wave infrared sensor module when the short wave infrared sensor module is received within the cradle, and a second portion positioned axially between the short wave infrared sensor module and the camera lens when the short wave infrared sensor module is received within the cradle, and wherein the cradle includes a lid that is secured to the first portion and the second portion to secure the short wave infrared sensor module within the cradle .
A signaling attack prevention method, wherein the method comprises: receiving (S401, S501) a general packet radio service, GPRS, Tunneling Protocol. GTP-C, message sent by a public data network gateway, PGW, wherein the GTP-C message comprises a characteristic parameter; determining (S402, S502) whether the GTP-C message is received from an S8 interface; when the GTP-C message is received from the S8 interface, determining (S403, S503, S506) whether the characteristic parameter of the GTP-C message is valid; and if the characteristic parameter of the GTP-C message is invalid, discarding (S404) the GTP-C message or returning, to the PGW, a GTP-C response message carrying an error code cause value, wherein the characteristic parameter comprises a message type of the GTP-C message; and the determining (S403, S503, S506) whether the characteristic parameter of the GTP-C message is valid comprises: determining (S503) whether the message type of the GTP-C message is an S11 interface message type; and when the message type of the GTP-C message is the S11 interface message type, determining that the message type of the GTP-C message is invalid. receiving (S401, S501) a general packet radio service, GPRS, Tunneling Protocol. GTP-C, message sent by a public data network gateway, PGW, wherein the GTP-C message comprises a characteristic parameter; determining (S402, S502) whether the GTP-C message is received from an S8 interface; when the GTP-C message is received from the S8 interface, determining (S403, S503, S506) whether the characteristic parameter of the GTP-C message is valid; and if the characteristic parameter of the GTP-C message is invalid, discarding (S404) the GTP-C message or returning, to the PGW, a GTP-C response message carrying an error code cause value, wherein the characteristic parameter comprises a message type of the GTP-C message; and the determining (S403, S503, S506) whether the characteristic parameter of the GTP-C message is valid comprises: determining (S503) whether the message type of the GTP-C message is an S11 interface message type; and when the message type of the GTP-C message is the S11 interface message type, determining that the message type of the GTP-C message is invalid.
Locking mechanism for a door , comprising at least one locking element for locking the door in a closed position and an actuating means for transferring the locking element from a locked position into an unlocked position and/or from the unlocked position into the locked position at the user side, wherein the locking element and the actuating means are mechanically coupled to each other by means of a pull-push element , wherein the locking mechanism comprises an adjustable coupling mechanism for adjustably coupling the pull-push element with the locking element and/or the actuating means ; characterized in that the coupling mechanism comprises a first cam element coupled with the pull-push element and a second cam element coupled with the locking element , wherein the first cam element and the second cam element can be coupled to one another in a plurality of different relative positions to each other. characterized in that the coupling mechanism comprises a first cam element coupled with the pull-push element and a second cam element coupled with the locking element , wherein the first cam element and the second cam element can be coupled to one another in a plurality of different relative positions to each other.
A method of installing a support for supporting a load structure, such as a wind turbine or a transformer platform or an oil or gas platform, thereon on a bed, floor or bottom (B) of, for instance a sea, ocean, lake, harbor or river, the method comprising: - positioning a pile guiding frame on the bed, floor or bottom (B), wherein the pile guiding frame comprises at least three pile holding sections , optionally at an outside perimeter of the pile guiding frame, each pile holding section allows guiding and maintaining a pile along a pile guiding direction in a vertical orientation, and neighbouring and/or opposing pile holding sections are interconnected by mutually crossing diagonal cross-beams ; - driving a pile through each pile holding section of the pile guiding frame into the bed, floor or bottom such that each pile projects in an upward direction out of the bed, floor or bottom and out of its associated pile holding section over a projection length (P) from each pile holding section, and providing a jointly rigid structure of the pile holding frame and the piles driven through each pile holding section in the bed, floor or bottom by securing each pile to its associated pile holding section , wherein the projection length is in the range of 2 - 5 times a diameter of the piles; and - providing a jacket on the piles projecting out of the pile holding sections, and securing the jacket to the piles so that the piles will bear the load of the jacket and of the load structure supported on the jacket, optionally wherein each pile has a diameter in the range of 2 - 3 meter. - positioning a pile guiding frame on the bed, floor or bottom (B), wherein the pile guiding frame comprises at least three pile holding sections , optionally at an outside perimeter of the pile guiding frame, each pile holding section allows guiding and maintaining a pile along a pile guiding direction in a vertical orientation, and neighbouring and/or opposing pile holding sections are interconnected by mutually crossing diagonal cross-beams ; - driving a pile through each pile holding section of the pile guiding frame into the bed, floor or bottom such that each pile projects in an upward direction out of the bed, floor or bottom and out of its associated pile holding section over a projection length (P) from each pile holding section, and providing a jointly rigid structure of the pile holding frame and the piles driven through each pile holding section in the bed, floor or bottom by securing each pile to its associated pile holding section , wherein the projection length is in the range of 2 - 5 times a diameter of the piles; and - providing a jacket on the piles projecting out of the pile holding sections, and securing the jacket to the piles so that the piles will bear the load of the jacket and of the load structure supported on the jacket,
A method in a radio base station or radio network controller, which method is for use in a Wideband Code Division Multiple Access, WCDMA, radio system and for detecting that a message has been correctly formed by layer 2 from parts generated by a single User Equipment, UE, in an idle state and transmitted on an Enhanced Dedicated CHannel, E-DCH, characterized by: - obtaining said message and a checksum regarding layer 3 of the message, and - checking said correctness of the message formed by layer 2 based on the checksum regarding layer 3. - obtaining said message and a checksum regarding layer 3 of the message, and - checking said correctness of the message formed by layer 2 based on the checksum regarding layer 3.
An apparatus comprising a processor and memory including computer program code, the memory and computer program code configured to, with the processor , enable the apparatus at least to: compare each one of two or more monitored trajectories of a vehicle through a road network with predefined map data for the road network to detect any anomalies between each one of the two or more monitored trajectories and the predefined map data, the two or more monitored trajectories of the vehicle determined simultaneously by different respective sensors on the vehicle ; use a classification model based on feature representation to classify one or more detected anomalies between each one of the two or more monitored trajectories of the vehicle and the predefined map data into one or more of the following classes: off-road, illegal manoeuvre, sensor irregularity, and unlikely geometry; and provide details of the one or more anomalies classified into the unlikely geometry class for use in obtaining additional data for the specific locations on the road network corresponding to said one or more anomalies classified into the unlikely geometry class. compare each one of two or more monitored trajectories of a vehicle through a road network with predefined map data for the road network to detect any anomalies between each one of the two or more monitored trajectories and the predefined map data, the two or more monitored trajectories of the vehicle determined simultaneously by different respective sensors on the vehicle ; use a classification model based on feature representation to classify one or more detected anomalies between each one of the two or more monitored trajectories of the vehicle and the predefined map data into one or more of the following classes: off-road, illegal manoeuvre, sensor irregularity, and unlikely geometry; and provide details of the one or more anomalies classified into the unlikely geometry class for use in obtaining additional data for the specific locations on the road network corresponding to said one or more anomalies classified into the unlikely geometry class. off-road, illegal manoeuvre, sensor irregularity, and unlikely geometry; and provide details of the one or more anomalies classified into the unlikely geometry class for use in obtaining additional data for the specific locations on the road network corresponding to said one or more anomalies classified into the unlikely geometry class.
A charge-time calculation method for calculating a total charge time for charging a battery to a predetermined target state of charge by a charge power output from a charger comprising: detecting a battery temperature showing temperature of the battery and a battery surrounding temperature showing surrounding temperature of the battery by using a temperature sensor ; detecting a voltage of the battery by using a voltage sensor ; calculating a state of charge of the battery based on the voltage of the battery ; calculating a chargeable power of the battery based on the voltage of the battery and charge upper-limit voltage of the battery ; comparing the chargeable power and outputtable power of the charger to set a lower power as a first charge power; calculating time from start of charging to a first timing that is a timing at which the battery temperature reaches a predetermined limit temperature as a first charge time, based on the battery temperature, the battery surrounding temperature, and a charge current when charging with the first charge power; calculating a second charge power limited according to the battery temperature after the first timing; calculating a second charge time that is a charge time after the first timing based on the state of the battery when the first timing is reached and the second charge power by referencing a map showing correspondence between the charge power, the state of charge, the battery temperature, and the charge time of the battery ; and calculating time obtained by adding the second charge time to the first charge time until the first timing is reached as the total charge time. detecting a battery temperature showing temperature of the battery and a battery surrounding temperature showing surrounding temperature of the battery by using a temperature sensor ; detecting a voltage of the battery by using a voltage sensor ; calculating a state of charge of the battery based on the voltage of the battery ; calculating a chargeable power of the battery based on the voltage of the battery and charge upper-limit voltage of the battery ; comparing the chargeable power and outputtable power of the charger to set a lower power as a first charge power; calculating time from start of charging to a first timing that is a timing at which the battery temperature reaches a predetermined limit temperature as a first charge time, based on the battery temperature, the battery surrounding temperature, and a charge current when charging with the first charge power; calculating a second charge power limited according to the battery temperature after the first timing; calculating a second charge time that is a charge time after the first timing based on the state of the battery when the first timing is reached and the second charge power by referencing a map showing correspondence between the charge power, the state of charge, the battery temperature, and the charge time of the battery ; and calculating time obtained by adding the second charge time to the first charge time until the first timing is reached as the total charge time.
A centrifugal separator (101; 201), in particular centrifugal separator for separating oil , comprising a centrifuge housing , a drive housing , a separator rotor , a shaft , a first bearing , a second bearing and a drive , - wherein a drive chamber is formed in the drive housing , - wherein a separation chamber is formed in the centrifuge housing , - wherein a dividing wall is formed between the drive chamber and the separation chamber , - wherein the dividing wall comprises an opening , - wherein the shaft extends through the opening of the dividing wall into the separation chamber and into the drive chamber , - wherein the separation rotor is connected to the shaft in a rotationally secure manner and is arranged in the separation chamber , - wherein the drive is arranged in the drive chamber and drives the shaft , - that the drive is in the form of an electric motor which directly drives the shaft in such a manner that the shaft forms a motor shaft of the electric motor , characterised in that - the electric motor comprises a containment can , wherein a hollow-cylindrical central portion of the containment can is arranged between a rotor of the electric motor and a stator of the electric motor . - wherein a drive chamber is formed in the drive housing , - wherein a separation chamber is formed in the centrifuge housing , - wherein a dividing wall is formed between the drive chamber and the separation chamber , - wherein the dividing wall comprises an opening , - wherein the shaft extends through the opening of the dividing wall into the separation chamber and into the drive chamber , - wherein the separation rotor is connected to the shaft in a rotationally secure manner and is arranged in the separation chamber , - wherein the drive is arranged in the drive chamber and drives the shaft , - that the drive is in the form of an electric motor which directly drives the shaft in such a manner that the shaft forms a motor shaft of the electric motor , - the electric motor comprises a containment can , wherein a hollow-cylindrical central portion of the containment can is arranged between a rotor of the electric motor and a stator of the electric motor .
A gas turbine engine comprising: a compressor assembly rotationally coupled to a shaft , the compressor assembly having a centrifugal impeller ; a shroud covering a bladed portion of the centrifugal impeller ; a diffuser attached to the shroud via a pair of flanges , the diffuser including a strut that is mounted through an aft-extending leg to a base of an intercase ; a sealing assembly attached to the diffuser , wherein the sealing assembly is attachable to a transition duct that is positioned to receive air from the diffuser , and wherein the sealing assembly is configured to prevent air from passing through the sealing assembly while allowing relative motion to occur between the transition duct and the diffuser , wherein the diffuser comprises a radial portion and an axial portion that is generally orthogonal to the radial portion , characterised in that the sealing assembly is attached to an outlet of the axial portion of the diffuser . a compressor assembly rotationally coupled to a shaft , the compressor assembly having a centrifugal impeller ; a shroud covering a bladed portion of the centrifugal impeller ; a diffuser attached to the shroud via a pair of flanges , the diffuser including a strut that is mounted through an aft-extending leg to a base of an intercase ; a sealing assembly attached to the diffuser , wherein the sealing assembly is attachable to a transition duct that is positioned to receive air from the diffuser , and wherein the sealing assembly is configured to prevent air from passing through the sealing assembly while allowing relative motion to occur between the transition duct and the diffuser , wherein the diffuser comprises a radial portion and an axial portion that is generally orthogonal to the radial portion , characterised in that the sealing assembly is attached to an outlet of the axial portion of the diffuser .
An integrated computational element (ICE) module for being housed within a downhole tool, the ICE module to determine at least one characteristic of a substance in a downhole environment, the ICE module comprising: an integrated computational element that optically processes electromagnetic radiation , wherein the electromagnetic radiation has previously interacted with the substance; an electromagnetic radiation to voltage converter that detects the processed electromagnetic radiation using at least one channel of the electromagnetic radiation to voltage converter and further converts the detected electromagnetic radiation into at least one voltage; a voltage to analog frequency converter that converts at least one voltage into at least one analog frequency; an analog to digital frequency converter that converts at least one analog frequency into at least one digital frequency; and a processor operable to: determine at least one intensity profile from at least one digital frequency, and determine at least one component of the substance in response to the determined at least one intensity profile. an integrated computational element that optically processes electromagnetic radiation , wherein the electromagnetic radiation has previously interacted with the substance; an electromagnetic radiation to voltage converter that detects the processed electromagnetic radiation using at least one channel of the electromagnetic radiation to voltage converter and further converts the detected electromagnetic radiation into at least one voltage; a voltage to analog frequency converter that converts at least one voltage into at least one analog frequency; an analog to digital frequency converter that converts at least one analog frequency into at least one digital frequency; and a processor operable to: determine at least one intensity profile from at least one digital frequency, and determine at least one component of the substance in response to the determined at least one intensity profile. determine at least one intensity profile from at least one digital frequency, and determine at least one component of the substance in response to the determined at least one intensity profile.