mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a printed circuit board having a cavity formed on a first side thereof, the cavity having side walls and a bottom ; an electronic component electrically connected to a substrate and positionable in connection with the substrate to be disposed at least partially in the cavity, with a portion of the electronic component extending above the first side of the printed circuit board ; physically-discrete electromagnetic interference (EMI)-shielding material disposed on at least one of the side walls and bottom of the cavity; and electrically-conductive foam disposed as to surround at least a portion of the electronic component, the foam being compressed between the substrate and the circuit board when the electronic component is disposed at least partially in the cavity . a printed circuit board having a cavity formed on a first side thereof, the cavity having side walls and a bottom ; an electronic component electrically connected to a substrate and positionable in connection with the substrate to be disposed at least partially in the cavity, with a portion of the electronic component extending above the first side of the printed circuit board ; physically-discrete electromagnetic interference (EMI)-shielding material disposed on at least one of the side walls and bottom of the cavity; and electrically-conductive foam disposed as to surround at least a portion of the electronic component, the foam being compressed between the substrate and the circuit board when the electronic component is disposed at least partially in the cavity .
Vehicle seat for a vehicle (V), comprising a seat part that has a seat part frame , comprising a backrest part and comprising a first and a second switching console element which each comprise at least one control element for actuating at least one function of an actuator element of the vehicle (V), the first switching console element being arranged on a first side (L) of the seat part and the second switching console element being arranged on a second side (R) of the seat part so as to extend in the longitudinal direction of the vehicle seat , the seat part and/or the backrest part being designed so as to be adjustable with respect to a degree of inclination, characterised in that a relative position of a first portion of the first switching console element with respect to the vehicle seat can be changed, it being possible to transfer the change in the relative position of the first portion of the first switching console element into a change in a relative position of a first portion of the second switching console element , with respect to the vehicle seat , by means of a transmission system which is free of electronic components.
A connecting rod manufacturing method comprising: forming, in an inner circumferential surface of a through-hole formed at an end of the connecting rod, a plurality of first holes as fracture start portions such that the first holes are arrayed in an axial direction of the through-hole and extend in a first direction; forming a plurality of second holes as the fracture start portions , such that the second holes are arrayed in the axial direction and extend in a second direction different from the first direction relative to the first holes ; and fracture-splitting the end of the connecting rod into a rod part and a cap part using the fracture start portions as start points; characterised in that : each second hole is formed between adjacent ones of the first holes . forming, in an inner circumferential surface of a through-hole formed at an end of the connecting rod, a plurality of first holes as fracture start portions such that the first holes are arrayed in an axial direction of the through-hole and extend in a first direction; forming a plurality of second holes as the fracture start portions , such that the second holes are arrayed in the axial direction and extend in a second direction different from the first direction relative to the first holes ; and fracture-splitting the end of the connecting rod into a rod part and a cap part using the fracture start portions as start points; characterised in that : each second hole is formed between adjacent ones of the first holes .
Cylinder head housing for an internal combustion engine , which cylinder head housing forms at least two cylinders in an in-line arrangement, having receiving openings for in each case one outlet valve , which receiving openings are assigned to the individual cylinders of the internal combustion engine , having exhaust-gas channels which extend from said outlet valve receiving openings and which are merged into one exhaust-gas outlet channel , and having cooling channels (52 - 74, 78, 80), characterized in that the cooling channels (52 - 74, 78, 80) - comprise a top-section distributor channel which extends along the line of cylinders and which is connected to in each case one injector cooling channel provided for arrangement above each of the at least two cylinders , wherein the injector cooling channels are each connected to a multiplicity of top-section network channels which extend in different radial directions with respect to a longitudinal axis of the respective injector cooling channel and which are connected directly or indirectly to at least two top-section collecting channels , which top-section collecting channels extend along the line of cylinders and are arranged on different sides with respect to the line defined by the injector cooling channels , and/or - comprise a manifold distributor channel which extends along the line of outlet valve receiving openings of the at least two cylinders , wherein the manifold distributor channel is connected directly or indirectly to a multiplicity of manifold network channels which run along the exhaust-gas channels and which are directly or indirectly connected to a manifold collecting channel , which manifold collecting channel extends along the line of the outlet valve receiving openings of the at least two cylinders . - comprise a top-section distributor channel which extends along the line of cylinders and which is connected to in each case one injector cooling channel provided for arrangement above each of the at least two cylinders , wherein the injector cooling channels are each connected to a multiplicity of top-section network channels which extend in different radial directions with respect to a longitudinal axis of the respective injector cooling channel and which are connected directly or indirectly to at least two top-section collecting channels , which top-section collecting channels extend along the line of cylinders and are arranged on different sides with respect to the line defined by the injector cooling channels , and/or - comprise a manifold distributor channel which extends along the line of outlet valve receiving openings of the at least two cylinders , wherein the manifold distributor channel is connected directly or indirectly to a multiplicity of manifold network channels which run along the exhaust-gas channels and which are directly or indirectly connected to a manifold collecting channel , which manifold collecting channel extends along the line of the outlet valve receiving openings of the at least two cylinders .
A method of communication, comprising: determining, at a first node, that radio link failure occurred during handover of an access terminal based on the access terminal attempting a connection re-establishment at the first node after the radio link failure; wherein the first node comprises a target access point for the handover of the access terminal; and reporting the radio link failure to a second node, wherein the first node was not prepared for handover of the access terminal, and wherein reporting the radio link failure comprises providing an indication to the second node that the radio link failure occurred during handover of the access terminal. determining, at a first node, that radio link failure occurred during handover of an access terminal based on the access terminal attempting a connection re-establishment at the first node after the radio link failure; wherein the first node comprises a target access point for the handover of the access terminal; and reporting the radio link failure to a second node, wherein the first node was not prepared for handover of the access terminal, and wherein reporting the radio link failure comprises providing an indication to the second node that the radio link failure occurred during handover of the access terminal.
A medical device flexing structure assembly, comprising: a tip electrode comprising a deformation mechanism and a distal portion; a multi-core fiber comprising a plurality of cores and a distal end; and wherein the distal end of the multi-core fiber passes through the deformation mechanism and is coupled to the distal portion of the tip electrode , wherein the multi-core fiber is held in tension within the tip electrode and wherein the multi-core fiber is configured to be immersed within a flowed irrigant, wherein the deformation mechanism is configured to bend in response to a force imparted on the tip electrode , wherein at least two of the plurality of cores comprises a fiber Bragg grating. a tip electrode comprising a deformation mechanism and a distal portion; a multi-core fiber comprising a plurality of cores and a distal end; and wherein the distal end of the multi-core fiber passes through the deformation mechanism and is coupled to the distal portion of the tip electrode , wherein the multi-core fiber is held in tension within the tip electrode and wherein the multi-core fiber is configured to be immersed within a flowed irrigant, wherein the deformation mechanism is configured to bend in response to a force imparted on the tip electrode , wherein at least two of the plurality of cores comprises a fiber Bragg grating.
A mirror die image recognition system configured to perform recognition, from many dies on a wafer diced into many separated dies , of a mirror die without damage or a pattern that is the same quadrilateral shape as a production die having a pattern, in a manner that distinguishes the mirror die without damage or pattern from a mirror die with damage and from a production die, the mirror die image recognition system comprising: a camera configured to image at least a portion of the wafer in a field of view; and an image processing device configured to process the image captured by the camera to recognize, from among each of the dies in the image, a mirror die without damage in a manner that distinguishes the mirror die without damage from other dies, characterized in that the image processing device is configured to acquire the mean brightness level of a region at at least five locations including regions corresponding to four corner location portions and a center portion of each die in the image, determine whether the mean brightness levels of the regions of the at least five locations are uniform, and recognize the die for which the mean brightness levels of the regions of the at least five locations are uniform as the mirror die without damage, wherein the mean brightness levels of the regions of the at least five locations are uniform, when the variance of the mean brightness levels of the regions of the at least five locations is within a specified variance range. a camera configured to image at least a portion of the wafer in a field of view; and an image processing device configured to process the image captured by the camera to recognize, from among each of the dies in the image, a mirror die without damage in a manner that distinguishes the mirror die without damage from other dies, characterized in that the image processing device is configured to acquire the mean brightness level of a region at at least five locations including regions corresponding to four corner location portions and a center portion of each die in the image, determine whether the mean brightness levels of the regions of the at least five locations are uniform, and recognize the die for which the mean brightness levels of the regions of the at least five locations are uniform as the mirror die without damage, wherein the mean brightness levels of the regions of the at least five locations are uniform, when the variance of the mean brightness levels of the regions of the at least five locations is within a specified variance range.
A method for manufacturing a positive electrode intended to be used in an alkali metal-ion electrochemical device, comprising: - synthesising a layer of a metal halide by electrochemical treatment of a current collector , the layer comprising a porous structure; the method being characterised in that it further comprises: - incorporating, in at least one portion of the porous structure, an electrically conductive compound. - synthesising a layer of a metal halide by electrochemical treatment of a current collector , the layer comprising a porous structure; - incorporating, in at least one portion of the porous structure, an electrically conductive compound.
An electronic overload inspection and warning system comprising a roundsling having a strand with a first end and a second end positioned within a plurality of core strands and a cover , a wireless sensor system mountable to the roundsling , a wireless base station including at least one wireless receiver configured to wirelessly communicate with multiple deployed wireless sensor systems ; and characterized by the wireless sensor system including at least one strain gauge electrically connected with a wireless transmitter , the strain gauge measuring the strain on the strand ; a carrier element , , , (126") having a longitudinal axis , , , (125") and being secured to the strand , the strain gauge secured to the carrier element , , , (126") at a receptacle , , , (166"), the carrier element , , , (126") having a first end with a first fastening mechanism , , , (162a") and a second end with a second fastening mechanism , , , (162b"), the first fastening mechanism , , , (162a") configured for securing the first end of the strand to the first end of the carrier element , , , (126") and the second fastening mechanism 62b), , , (162b") configured for securing the second end of the strand to the second end of the carrier element , , , (126"), the first and second ends of the carrier element , , , (126") positioned along the longitudinal axis , , , (125").
A directional lock , comprising: a housing defining an interior space, a first opening and a second opening , wherein each of the first and second openings communicates with the interior space; a brake element defined by or supported by the housing ; at least one lock element disposed within the housing ; a core element that passes through both the first and second openings of the housing and engages the lock element such that movement of the core element relative to the housing causes rotation of the lock element; wherein the lock element is movable relative to the housing between a first position, which provides a first level of resistance to rotation of the lock element, and a second position, which provides a second level of resistance to rotation of the lock element, wherein the second level of resistance is higher than the first level; and wherein the second level of resistance is caused at least in part by contact between the lock element and the brake element . a housing defining an interior space, a first opening and a second opening , wherein each of the first and second openings communicates with the interior space; a brake element defined by or supported by the housing ; at least one lock element disposed within the housing ; a core element that passes through both the first and second openings of the housing and engages the lock element such that movement of the core element relative to the housing causes rotation of the lock element; wherein the lock element is movable relative to the housing between a first position, which provides a first level of resistance to rotation of the lock element, and a second position, which provides a second level of resistance to rotation of the lock element, wherein the second level of resistance is higher than the first level; and wherein the second level of resistance is caused at least in part by contact between the lock element and the brake element .
An organic thin film transistor comprising: an organic semiconductor film containing a compound represented by Formula or , in Formula , A 11 and A 12 each independently represent -N(R N )- or -P(R N )-, R N represents a hydrogen atom or a substituent, and a plurality of R N 's are identical to or different from each other, in Formula , B 11 and B 12 each independently represent -N= or -C(R M )=, R M represents a hydrogen atom or a substituent, and in a case where both of B 11 and B 12 are -C(R M )=, R M included in B 11 and R M included in B 12 may form a ring, in Formula , Ch 11 represents a sulfur atom, a sulfinyl group, a sulfonyl group, a selenium atom, a selenenyl group, or a selenonyl group, and in Formula , X 11 , X 12 , X 13 , and X 14 each independently represent an oxygen atom or a sulfur atom, in Formula , A 21 and A 22 each independently represent -N(R N )- or -P(R N )-, R N represents a hydrogen atom or a substituent, and a plurality of R N 's are identical to or different from each other, in Formula , B 21 and B 22 each independently represent -N= or -C(R M )=, R M represents a hydrogen atom or a substituent, and in a case where both of B 21 and B 22 are -C(R M )=, R M included in B 21 and R M included in B 22 may form a ring, in Formula , Ch 21 represents a sulfur atom, a sulfinyl group, a sulfonyl group, a selenium atom, a selenenyl group, or a selenonyl group, in Formula , X 21 , X 22 , X 23 , and X 24 each independently represent an oxygen atom or a sulfur atom, and in Formula , R 21 and R 22 each independently represent a hydrogen atom or a substituent. an organic semiconductor film containing a compound represented by Formula or , in Formula , A 11 and A 12 each independently represent -N(R N )- or -P(R N )-, R N represents a hydrogen atom or a substituent, and a plurality of R N 's are identical to or different from each other, in Formula , B 11 and B 12 each independently represent -N= or -C(R M )=, R M represents a hydrogen atom or a substituent, and in a case where both of B 11 and B 12 are -C(R M )=, R M included in B 11 and R M included in B 12 may form a ring, in Formula , Ch 11 represents a sulfur atom, a sulfinyl group, a sulfonyl group, a selenium atom, a selenenyl group, or a selenonyl group, and in Formula , X 11 , X 12 , X 13 , and X 14 each independently represent an oxygen atom or a sulfur atom, in Formula , A 21 and A 22 each independently represent -N(R N )- or -P(R N )-, R N represents a hydrogen atom or a substituent, and a plurality of R N 's are identical to or different from each other, in Formula , B 21 and B 22 each independently represent -N= or -C(R M )=, R M represents a hydrogen atom or a substituent, and in a case where both of B 21 and B 22 are -C(R M )=, R M included in B 21 and R M included in B 22 may form a ring, in Formula , Ch 21 represents a sulfur atom, a sulfinyl group, a sulfonyl group, a selenium atom, a selenenyl group, or a selenonyl group, in Formula , X 21 , X 22 , X 23 , and X 24 each independently represent an oxygen atom or a sulfur atom, and in Formula , R 21 and R 22 each independently represent a hydrogen atom or a substituent.
Device for ultrasound-supported reflection and transmission tomography, comprising a) a measurement volume with an opening for inserting a body which is to be examined, and b) a total number of ultrasonic transducers , which are arranged with direct contact to the ultrasonic coupling medium around the measurement volume away from the opening and are oriented into the measurement volume, wherein the measurement volume comprises a jacket surface away from the opening, wherein c) the total number of ultrasonic transducers are distributed onto a plurality of transducer fields , and the arrangement of the ultrasonic transducers on each transducer field follows an aperiodic random uniform distribution, characterised in that d) the transducer fields are circular in shape. a) a measurement volume with an opening for inserting a body which is to be examined, and b) a total number of ultrasonic transducers , which are arranged with direct contact to the ultrasonic coupling medium around the measurement volume away from the opening and are oriented into the measurement volume, wherein the measurement volume comprises a jacket surface away from the opening, wherein c) the total number of ultrasonic transducers are distributed onto a plurality of transducer fields , and the arrangement of the ultrasonic transducers on each transducer field follows an aperiodic random uniform distribution, characterised in that d) the transducer fields are circular in shape.
An apparatus comprising: a first compressor configured to compress a first refrigerant; a first load configured to: use the first refrigerant to remove heat from a space proximate the first load ; and send the first refrigerant to the first compressor ; a second compressor configured to compress a second refrigerant; a second load configured to: use the second refrigerant to remove heat from a space proximate the second load ; and send the second refrigerant to the second compressor ; a heat exchanger , configured to: receive the first refrigerant from the first compressor ; receive the second refrigerant from the second compressor ; transfer heat from the first refrigerant to the second refrigerant; discharge the first refrigerant to the first load ; and discharge the second refrigerant to the second compressor ; a high side heat exchanger configured to: receive the first refrigerant from the first compressor ; and remove heat from the first refrigerant; characterised in that the apparatus further comprises a part load path coupled to the heat exchanger and the high side heat exchanger , wherein the first refrigerant flows from the high side heat exchanger to the heat exchanger through the part load path . a first compressor configured to compress a first refrigerant; a first load configured to: use the first refrigerant to remove heat from a space proximate the first load ; and send the first refrigerant to the first compressor ; use the first refrigerant to remove heat from a space proximate the first load ; and send the first refrigerant to the first compressor ; a second compressor configured to compress a second refrigerant; a second load configured to: use the second refrigerant to remove heat from a space proximate the second load ; and send the second refrigerant to the second compressor ; use the second refrigerant to remove heat from a space proximate the second load ; and send the second refrigerant to the second compressor ; a heat exchanger , configured to: receive the first refrigerant from the first compressor ; receive the second refrigerant from the second compressor ; transfer heat from the first refrigerant to the second refrigerant; discharge the first refrigerant to the first load ; and discharge the second refrigerant to the second compressor ; receive the first refrigerant from the first compressor ; receive the second refrigerant from the second compressor ; transfer heat from the first refrigerant to the second refrigerant; discharge the first refrigerant to the first load ; and discharge the second refrigerant to the second compressor ; a high side heat exchanger configured to: receive the first refrigerant from the first compressor ; and remove heat from the first refrigerant; characterised in that the apparatus further comprises receive the first refrigerant from the first compressor ; and remove heat from the first refrigerant; characterised in that the apparatus further comprises a part load path coupled to the heat exchanger and the high side heat exchanger , wherein the first refrigerant flows from the high side heat exchanger to the heat exchanger through the part load path .