mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a first circuit board , wherein the first circuit board includes a first edge and a second edge , and the first edge is opposite from the second edge on the first circuit board; a first Peripheral Component Interconnect Express (PCIe) connector located at the first edge on the first circuit board; a second PCIe connector located at the second edge on the first circuit board; a second circuit board including a first PCIe slot and a second PCIe slot ; a PCIe riser including a first end inserted into the first PCIe slot, wherein the first PCIe connector is inserted into a second end of the PCIe riser; and a PCIe cable coupled between the second PCIe connector and the second PCIe slot. a first circuit board , wherein the first circuit board includes a first edge and a second edge , and the first edge is opposite from the second edge on the first circuit board; a first Peripheral Component Interconnect Express (PCIe) connector located at the first edge on the first circuit board; a second PCIe connector located at the second edge on the first circuit board; a second circuit board including a first PCIe slot and a second PCIe slot ; a PCIe riser including a first end inserted into the first PCIe slot, wherein the first PCIe connector is inserted into a second end of the PCIe riser; and a PCIe cable coupled between the second PCIe connector and the second PCIe slot.
A computer implemented method of establishing a brain status indication parameter (BSI) serving as an intermediate finding indicative of a brain disorder, the method comprising the steps: - recording one or more images of an energy metabolism indicator by a brain scanning device (BSD), - segmenting each of said one or more images of an energy metabolism indicator into a brain part and a skull part, - determining a brain energy metabolism indicator (BEM) of at least a part of the brain of a subject, - determining a skull energy metabolism indicator (SEM) of at least a part of the skull of said subject, and - establishing the brain status indication parameter by at least relating said brain energy metabolism indicator to said skull energy metabolism indicator, - recording one or more images of an energy metabolism indicator by a brain scanning device (BSD), - segmenting each of said one or more images of an energy metabolism indicator into a brain part and a skull part, - determining a brain energy metabolism indicator (BEM) of at least a part of the brain of a subject, - determining a skull energy metabolism indicator (SEM) of at least a part of the skull of said subject, and - establishing the brain status indication parameter by at least relating said brain energy metabolism indicator to said skull energy metabolism indicator,
A vane section of a gas turbine engine comprising: a platform ; an airfoil extending outwardly from the platform and having an internal channel communicating with an opening in the platform ; at least one rail extending inwardly from the platform such that a surface of the platform opposite the airfoil and the at least one rail at least partially define a platform cavity ; and a flow diverter extending inwardly of the platform within the platform cavity and defining a diverter cavity , an inlet configured to receive fluid (F I ) flowing in a first direction from the opening in the platform to the diverter cavity , and an outlet configured to expel fluid (F O ) from the diverter cavity to the platform cavity in a second direction different from the first direction; characterised by : a sloped surface (504; 604) disposed in the diverter cavity configured to divert fluid from the first direction to the second direction, wherein the flow diverter is monolithic with the platform . a platform ; an airfoil extending outwardly from the platform and having an internal channel communicating with an opening in the platform ; at least one rail extending inwardly from the platform such that a surface of the platform opposite the airfoil and the at least one rail at least partially define a platform cavity ; and a flow diverter extending inwardly of the platform within the platform cavity and defining a diverter cavity , an inlet configured to receive fluid (F I ) flowing in a first direction from the opening in the platform to the diverter cavity , and an outlet configured to expel fluid (F O ) from the diverter cavity to the platform cavity in a second direction different from the first direction; characterised by : a sloped surface (504; 604) disposed in the diverter cavity configured to divert fluid from the first direction to the second direction, wherein the flow diverter is monolithic with the platform .
A collar adapted to be mounted on a cylinder of a gas bottle , wherein the cylinder comprises a liner with a flap bridge for transporting such liner by being handheld from a handle-set of the collar , wherein said collar further comprises: • a dual coupling hook configured to embrace the flap bridge of the liner , the dual coupling hook comprising: ∘ an inner coupling (3.1) adapted to engage the flap bridge of the liner , ∘ an outer threaded coupling (3.2) comprising a stopper point (3.3); and • a handle-set comprising: ∘ a coupling ledge (2.1), and ∘ a spring lock-in system (2.2); wherein the outer threaded coupling (3.2) of the dual coupling hook is configured to engage the coupling ledge (2.1) of the handle-set , and wherein the spring lock-in system (2.2) of the handle-set is configured to lock-in the coupling ledge (2.1) of the handle-set with the outer threaded coupling (3.2) of the dual coupling hook by a rotary slide-in movement once the stopper point (3.3) of the outer threaded coupling (3.2) is reached. • a dual coupling hook configured to embrace the flap bridge of the liner , the dual coupling hook comprising: ∘ an inner coupling (3.1) adapted to engage the flap bridge of the liner , ∘ an outer threaded coupling (3.2) comprising a stopper point (3.3); and ∘ an inner coupling (3.1) adapted to engage the flap bridge of the liner , ∘ an outer threaded coupling (3.2) comprising a stopper point (3.3); and • a handle-set comprising: ∘ a coupling ledge (2.1), and ∘ a spring lock-in system (2.2); ∘ a coupling ledge (2.1), and ∘ a spring lock-in system (2.2); wherein the outer threaded coupling (3.2) of the dual coupling hook is configured to engage the coupling ledge (2.1) of the handle-set , and wherein the spring lock-in system (2.2) of the handle-set is configured to lock-in the coupling ledge (2.1) of the handle-set with the outer threaded coupling (3.2) of the dual coupling hook by a rotary slide-in movement once the stopper point (3.3) of the outer threaded coupling (3.2) is reached.
A concrete sub-base layer with recycled rubber from discarded tyres (PFU), said concrete having a compressive strength greater than 1 MPa, preferably greater than 2 MPa at 28 days, a density lower than 1,100 kg/m 3 , preferably lower than 1,000 kg/m 3 and an elastic modulus lower than 5,000 MPa, preferably lower than 3,000 Mpa, consisting of cement, aggregates, water and possibly polymeric additives, wherein the aggregates in the concrete sub-base layer consist exclusively of pretreated recycled rubber from discarded tyres (PFU) and have a particle size lower than 20 mm and the rubber from discarded tyres is pre-treated by storage of PFU rubber in water for a time ranging from 7 days to 40 days or by washing the PFU rubber with latex and wherein the concrete mixture comprises from 35 to 50% by weight of cement, from 10 to 18% by weight of water and from 30 to 50% by weight of aggregates.
A surgical apparatus configured and dimensioned to create an internal surgical worksite, the surgical apparatus comprising: an expandable dissection element ; and wherein the surgical apparatus further comprises a restrictor in contact with the dissection element to restrict expansion of the dissection element in at least one direction, wherein the restrictor is less resilient than the dissection element , the restrictor comprising: a first portion (402 A ) including a first arm (404 A1 ) and a second arm (404 A2 ); and a second portion (402 B ) connected to the first portion, the second portion including a first arm (404 B1 ) and a second arm (404 B2 ), wherein the first arm of the first portion is connected to the first arm of the second portion, and the second arm of the first portion is secured to the second arm of the second portion whereby the restrictor element extends around the expandable dissection element and divides the surface of the expandable dissection element intermediate the restrictor element into three separate areas. an expandable dissection element ; and wherein the surgical apparatus further comprises a restrictor in contact with the dissection element to restrict expansion of the dissection element in at least one direction, wherein the restrictor is less resilient than the dissection element , the restrictor comprising: a first portion (402 A ) including a first arm (404 A1 ) and a second arm (404 A2 ); and a second portion (402 B ) connected to the first portion, the second portion including a first arm (404 B1 ) and a second arm (404 B2 ), wherein the first arm of the first portion is connected to the first arm of the second portion, and the second arm of the first portion is secured to the second arm of the second portion whereby the restrictor element extends around the expandable dissection element and divides the surface of the expandable dissection element intermediate the restrictor element into three separate areas. a first portion (402 A ) including a first arm (404 A1 ) and a second arm (404 A2 ); and a second portion (402 B ) connected to the first portion, the second portion including a first arm (404 B1 ) and a second arm (404 B2 ), wherein the first arm of the first portion is connected to the first arm of the second portion, and the second arm of the first portion is secured to the second arm of the second portion whereby the restrictor element extends around the expandable dissection element and divides the surface of the expandable dissection element intermediate the restrictor element into three separate areas.
An orientation controller to be connected to an insertion unit of an endoscopic device having a rotatable bending section; said controller comprising: a handle defining an axial direction to be handled by an operator; a rotatable bearing structure connecting between the handle and the insertion unit; the rotatable bearing structure being configured and operable to rotate the rotatable bending section of the insertion unit about the axial direction; and a mode selector capable of operating the endoscopic device in locked mode and unlocked operation modes, wherein operation of the locked mode blocks the rotatable bearing structure, and operation of the unlocked mode releases the rotatable bearing structure and allows the operator to rotate the rotatable bending section by rotating the rotatable bearing structure about the axial direction; wherein, when the insertion unit comprises an inner elongated shaft structure and an outer elongated shaft structure surrounding the inner elongated shaft structure; said rotatable bearing structure comprises an inner rotatable bearing element being configured for connecting between the inner elongated shaft structure and the handle, and an outer rotatable bearing element connected to the outer elongated shaft structure such that the inner rotation bearing element is capable of rotating within the outer rotatable bearing element, thereby rotating in the unlocked operation mode the rotatable bending section around itself without changing the outer elongated shaft structure's position inside the body lumen. a handle defining an axial direction to be handled by an operator; a rotatable bearing structure connecting between the handle and the insertion unit; the rotatable bearing structure being configured and operable to rotate the rotatable bending section of the insertion unit about the axial direction; and a mode selector capable of operating the endoscopic device in locked mode and unlocked operation modes, wherein operation of the locked mode blocks the rotatable bearing structure, and operation of the unlocked mode releases the rotatable bearing structure and allows the operator to rotate the rotatable bending section by rotating the rotatable bearing structure about the axial direction; wherein, when the insertion unit comprises an inner elongated shaft structure and an outer elongated shaft structure surrounding the inner elongated shaft structure; said rotatable bearing structure comprises an inner rotatable bearing element being configured for connecting between the inner elongated shaft structure and the handle, and an outer rotatable bearing element connected to the outer elongated shaft structure such that the inner rotation bearing element is capable of rotating within the outer rotatable bearing element, thereby rotating in the unlocked operation mode the rotatable bending section around itself without changing the outer elongated shaft structure's position inside the body lumen.
A wind turbine blade which is at least 45m long, the blade having a main axis in the lengthwise direction from root to tip, the blade comprising an aerodynamic shell surrounding a spar which extends in a lengthwise direction along a substantial proportion of the blade at least a portion of the half of the shell closest to the tip being reinforced by high stiffness fibres having a Young's modulus to density ratio of greater than 50 GPa/(g.cm -3 ), and an electrical resistivity of greater than 10 10 Ω.cm, the fibres being biaxial with a first axis angled with respect to the main axis at an acute angle and a second axis angled with respect to the main axis at an acute angle in the opposite sense to the first angle, characterized in that at least the radially innermost third of the shell and a zone (X) adjacent a tip of the blade are substantially free from high stiffness fibres .
A battery pack for an electric vehicle comprising: a heat-radiating plastic pack having a plurality of stacked heat-radiation cartridges each being packed with a pair of batteries ; and a heat-radiation module comprising a vapor chamber contacting the heat-radiating plastic pack to uniformly collect heat generated from the heat-radiating plastic pack , a heat sink for diffusing and discharging the collected heat of the vapor chamber ; and a heat exchanger for lowering the temperature of the heat sink , wherein the heat-radiation cartridge comprises a frame structure including a receiving penetration hole located in a central region for accommodating a pair of batteries and a seating portion formed on an inner circumferential wall of the receiving penetration hole to seat the pair of batteries , wherein the frame structure is molded with a heat-radiation plastic and comprises an aluminum frame which is insert-injection-molded. a heat-radiating plastic pack having a plurality of stacked heat-radiation cartridges each being packed with a pair of batteries ; and a heat-radiation module comprising a vapor chamber contacting the heat-radiating plastic pack to uniformly collect heat generated from the heat-radiating plastic pack , a heat sink for diffusing and discharging the collected heat of the vapor chamber ; and a heat exchanger for lowering the temperature of the heat sink , wherein the heat-radiation cartridge comprises a frame structure including a receiving penetration hole located in a central region for accommodating a pair of batteries and a seating portion formed on an inner circumferential wall of the receiving penetration hole to seat the pair of batteries , wherein the frame structure is molded with a heat-radiation plastic and comprises an aluminum frame which is insert-injection-molded.
Hydroelastic device intended to be attached to two parts of a machine or piece of equipment in order to connect them and provide a transmission of forces from one to the other and to dampen or filter the vibrations between them, of a type comprising, on one hand, solid force transmission elements including an internal reinforcement and an external reinforcement spaced in a way which delimits a gap , as well as a damping mass which is relatively rigid but elastically deformable, positioned in the gap and connected with the two reinforcements , and on the other hand, a damping space including at least one damping chamber delimited by an interior lateral surface of the damping chamber formed by surfaces of solid force transmission elements, and attached to the damping mass , the hydroelastic device being normally in a full state in which the damping space is filled with a pressurized hydraulic damping liquid suitable for being and intended to be displaced within the damping space following the exertion on one of the reinforcements in relation to the other of a force in one direction (F) applied by the hydroelastic device , in order to dampen or filter the vibrations, the hydroelastic device can accidentally being in an unfilled state where the damping space is no longer filled by the pressurised damping liquid , characterized in that this further involves integrated specific and proprietary palliative means for the unfilled state , inactive in the full state and rendered active upon the unfilled state where they cause the hydroelastic device to be in a state of heightened stiffness so that it will exhibit stable behaviour, even though the damping space is not filled with the pressurised damping liquid , these means comprising a locking system including a fully rigid locking part , as well as a deformable load part , controlled by the state of the device with regard to filling.
A method of processing sensor logs, wherein the method is performed using one or more processors or dedicated hardware, the method comprising: accessing a first sensor log and a corresponding first reference log , each of the first sensor log and the first reference log comprising a series of measured values of a parameter according to a first time series; accessing a second sensor log and a corresponding second reference log , each of the second sensor log and the second reference log comprising a series of measured values of a parameter according to a second time series; dynamically time warping the first reference log and/or the second reference log by a first transformation between the first time series and a common time-frame and/or a second transformation between the second time series and the common time-frame, wherein dynamically time warping the first and second reference logs comprises: dividing the first time series into a plurality of sub-periods in dependence upon the first reference log; and dividing the second time series into a plurality of sub-periods in dependence upon the second reference log; and generating a first warped sensor log and/or a second warped sensor log by dynamically time warping the first sensor log by the first transformation and/or the second sensor log by the second transformation. accessing a first sensor log and a corresponding first reference log , each of the first sensor log and the first reference log comprising a series of measured values of a parameter according to a first time series; accessing a second sensor log and a corresponding second reference log , each of the second sensor log and the second reference log comprising a series of measured values of a parameter according to a second time series; dynamically time warping the first reference log and/or the second reference log by a first transformation between the first time series and a common time-frame and/or a second transformation between the second time series and the common time-frame, wherein dynamically time warping the first and second reference logs comprises: dividing the first time series into a plurality of sub-periods in dependence upon the first reference log; and dividing the second time series into a plurality of sub-periods in dividing the first time series into a plurality of sub-periods in dependence upon the first reference log; and dividing the second time series into a plurality of sub-periods in dependence upon the second reference log; and generating a first warped sensor log and/or a second warped sensor log by dynamically time warping the first sensor log by the first transformation and/or the second sensor log by the second transformation.
Method for performing a radiated two-stage method measurement on a device under test having a predefined number of antennas , comprising the following steps: a) placing the device under test on a positioner , b) establishing communication with the device under test using at least one link antenna , c) measuring the antenna pattern of the device under test using a plurality of measurement antennas , wherein the plurality of measurement antennas comprise a number of measurement antennas being larger than the number of antennas of the device under test , wherein the method is characterised by the following steps: d) generating a channel matrix using the measurements of the plurality of measurement antennas , e) inverting the channel matrix yielding more than one solution for the channel matrix inversion, and f) selecting one of the solutions, wherein the selected solution is the solution with the smallest Euclidean norm. a) placing the device under test on a positioner , b) establishing communication with the device under test using at least one link antenna , c) measuring the antenna pattern of the device under test using a plurality of measurement antennas , wherein the plurality of measurement antennas comprise a number of measurement antennas being larger than the number of antennas of the device under test , d) generating a channel matrix using the measurements of the plurality of measurement antennas , e) inverting the channel matrix yielding more than one solution for the channel matrix inversion, and f) selecting one of the solutions, wherein the selected solution is the solution with the smallest Euclidean norm.
A broadcast receiver apparatus (A) which can receive an IP broadcast, comprising: storage means for storing a network configuration information file and channel information; and control means for controlling units of the broadcast receiver apparatus, wherein when the broadcast receiver apparatus is activated, the control means connects to a network (NT), acquires a network configuration information file from the network, determines whether a piece of information for identifying a network described in the network configuration information file acquired from the network is different from a piece of information for identifying a network described in the network configuration information file stored in the storage means, and initializes the channel information if the pieces of information are different. storage means for storing a network configuration information file and channel information; and control means for controlling units of the broadcast receiver apparatus, wherein when the broadcast receiver apparatus is activated, the control means connects to a network (NT), acquires a network configuration information file from the network, determines whether a piece of information for identifying a network described in the network configuration information file acquired from the network is different from a piece of information for identifying a network described in the network configuration information file stored in the storage means, and initializes the channel information if the pieces of information are different.