mhurhangee/patent-ind-claim-en huggingface dataset:
System for peripheral nerve stimulation, in particular for detecting and/or monitoring of neuronal and/or muscle activity, comprising at least one neurostimulation device , wherein the neurostimulation device comprises at least a first recording means and a second recording means , wherein the first recording means and the second recording means are configured to be arranged at a recording means distance from one another and respectively configured to detect a stimulus being propagated along a nervous structure, in particular along an efferent nerve and/or an afferent nerve, such that a speed of the stimulus being propagated along the nervous structure can be determined, wherein each of the first and second recording means (130; 140) comprise at least two recording elements (132; 134; 142; 144), wherein the recording elements (132; 134) of the first recording means are arranged in a first pattern , wherein the recording elements (142; 144) of the second recording means are arranged in a second pattern different from the first pattern . wherein the neurostimulation device comprises at least a first recording means and a second recording means , wherein the first recording means and the second recording means are configured to be arranged at a recording means distance from one another and respectively configured to detect a stimulus being propagated along a nervous structure, in particular along an efferent nerve and/or an afferent nerve, such that a speed of the stimulus being propagated along the nervous structure can be determined, wherein each of the first and second recording means (130; 140) comprise at least two recording elements (132; 134; 142; 144), wherein the recording elements (132; 134) of the first recording means are arranged in a first pattern , wherein the recording elements (142; 144) of the second recording means are arranged in a second pattern different from the first pattern .
Device for reading out exposed imaging plates , having retaining means for retaining in a predefined geometry an imaging plate to be read out, having a reading unit which generates a reading light beam which is moved in a first scanning direction and comprises detection means for detecting fluorescent light released in the imaging plate by the reading beam, and having a common drive device for generating a relative movement between the imaging plate and the reading unit in a second scanning direction which differs from the first scanning direction, wherein the imaging plate is moved through the reading unit in a substantially flat form, characterised in that an erasing unit is arranged in the direction of the second scanning direction behind the reading unit and aligned therewith, in that the drive device is designed in such a way that it also extends over the erasing unit such that the drive device is configured to generate a relative movement between the imaging plate and the erasing unit in the second scanning direction and the erasure and the reading out take place substantially simultaneously, in that a light barrier is arranged between the reading unit and the erasing unit , and in that a guiding unit is provided in the region between the reading unit and the erasing unit , which predetermines a step in the conveying path of the imaging plate and deflects the imaging plate out of a first conveying plane (F1) into a second conveying plane (F2) spaced parallel thereto, such that erasing light emitted from the erasing unit does not reach the reading unit .
Landing gear for an aircraft (G), said landing gear having a landing gear leg carrying at least one stub , said stub being provided with a hollow element , said landing gear comprising an onboard device , said onboard device including a bar extending in the interior (INT) of said hollow element from a fixed end to a free end , said onboard device comprising at least one measurement unit , said measurement unit comprising two pieces of equipment cooperating with each other to take a measurement relating to a distance between said bar and an inside face of said hollow element , one of said pieces of equipment comprising a measurement member forming part of a sensor arranged inside said hollow element , one of said pieces of equipment comprising a wall facing said sensor , said sensor issuing a signal that is a function of said distance, one of said pieces of equipment being secured to the bar and one of said pieces of equipment being secured to the hollow element , characterised in that said onboard device includes a test system , said test system having movement means operating on request to impart a relative movement (MOV) between said two pieces of equipment of a measurement unit, said test system having a calculator connected to the sensor , said calculator being configured to process said signal when a said relative movement (MOV) is imparted in order to detect any potential malfunction of said sensor and in order to generate an alert if a malfunction is detected.
A heat exchange system for patient temperature control comprising: a first plate ; a first working fluid chamber on a first side of the first plate , wherein the first working fluid chamber is configured to receive a holder or cassette through which a first working fluid can flow to a first patient heat exchange member without touching the first plate ; a first refrigerant chamber , through which a refrigerant can flow, on a second side of the first plate opposite the first side, such that heat exchange is facilitated through the first plate between the first refrigerant chamber and the first working fluid chamber ; and a second working fluid chamber , through which a second working fluid can flow, separated from the first refrigerant chamber by a barrier or wall through which heat exchange may be effected between the second working fluid chamber and the first refrigerant chamber , wherein the second working fluid chamber is configured to be fluidly coupled to a second patient heat exchange member . a first plate ; a first working fluid chamber on a first side of the first plate , wherein the first working fluid chamber is configured to receive a holder or cassette through which a first working fluid can flow to a first patient heat exchange member without touching the first plate ; a first refrigerant chamber , through which a refrigerant can flow, on a second side of the first plate opposite the first side, such that heat exchange is facilitated through the first plate between the first refrigerant chamber and the first working fluid chamber ; and a second working fluid chamber , through which a second working fluid can flow, separated from the first refrigerant chamber by a barrier or wall through which heat exchange may be effected between the second working fluid chamber and the first refrigerant chamber , wherein the second working fluid chamber is configured to be fluidly coupled to a second patient heat exchange member .
A multi-fiber, fiber optic connector , said connector comprising: a housing having a first end for receiving a multi-fiber fiber optic cable and a second end having openings for said fibers from said cable; first and second key slots configured to accept a removable key for setting the polarity of said fibers within said connector , with said first and second key slots located on opposing sides of said connector, said removable key having an extended tab portion for moving the removable key from said first and second key slots ; either one of guide pins or guide pin receiving holes for guiding the connection with a second connector, and a strain relief , wherein said removable key is movable between said first and second key slots, said key slot with said removable key corresponding to a first active slot and said key slot without said removable key corresponding to a non-active slot, such that when said removable key is in said first key slot, resulting in said first key slot being active, said fibers are presented within said connector in a first polarity and when said removable key is moved from said first key slot to said second key slot, activating said second key slot and deactivating said first key slot, said fibers are presented within said connector in a second polarity, reversed from said first polarity, wherein the connector is configured to have said extended tab portion to pass under said housing within said active key slot and to pass over or through said strain relief . a housing having a first end for receiving a multi-fiber fiber optic cable and a second end having openings for said fibers from said cable; first and second key slots configured to accept a removable key for setting the polarity of said fibers within said connector , with said first and second key slots located on opposing sides of said connector, said removable key having an extended tab portion for moving the removable key from said first and second key slots ; either one of guide pins or guide pin receiving holes for guiding the connection with a second connector, and a strain relief , wherein said removable key is movable between said first and second key slots, said key slot with said removable key corresponding to a first active slot and said key slot without said removable key corresponding to a non-active slot, such that when said removable key is in said first key slot, resulting in said first key slot being active, said fibers are presented within said connector in a first polarity and when said removable key is moved from said first key slot to said second key slot, activating said second key slot and deactivating said first key slot, said fibers are presented within said connector in a second polarity, reversed from said first polarity,
A swinging door structure , specifically an inward swinging door structure, for a motor vehicle, preferably a bus, having at least one pivotable door leaf , having at least one guide mechanism for the door leaf , and having at least one switch , preferably a pressure wave switch, for detecting whether the door leaf strikes an obstacle during a closing operation, wherein the switch is able to be pivoted with the door leaf , wherein the switch has a diaphragm and the diaphragm is oriented substantially horizontally and/or is installed in a lying position, characterized in that - the switch is connected to a control cable , wherein the control cable serves for connecting the switch to a door control unit, wherein - the guide mechanism comprises a door-frame-side guide mechanism , wherein the door-frame-side guide mechanism comprises a guide rail for guiding a roller or a slide block (3.1), and wherein - the control cable runs through an opening in the guide rail and runs along the guide rail of the door-frame-side guide mechanism . - the switch is connected to a control cable , wherein the control cable serves for connecting the switch to a door control unit, wherein - the guide mechanism comprises a door-frame-side guide mechanism , wherein the door-frame-side guide mechanism comprises a guide rail for guiding a roller or a slide block (3.1), and wherein - the control cable runs through an opening in the guide rail and runs along the guide rail of the door-frame-side guide mechanism .
A pull-on disposable diaper comprising: a front portion (A) disposed on a front side of a wearer during wear and a rear portion (B) disposed on a rear side of the wearer during wear, both sides of the front portion (A) and both sides of the rear portion (B) being joined with each other to form a pair of side seals , a waist opening , and a pair of leg openings , wherein the side seals include a joined region where the front portion (A) and the rear portion (B) are joined with each other, and a fusion bonded region where at least either one of a plurality of constituent sheets for the front portion (A) and a plurality of constituent sheets for the rear portion (B) are fusion bonded, and a length (W2) of the fusion bonded region in a width direction of the side seal is shorter than a length (W) of the side seal in the width direction of the side seal , wherein the fusion bonded region is positioned inward of a center position of the side seal in the width direction of the side seal , and wherein an arrangement pitch (P1) of the joined regions in the longitudinal direction of the side seal is longer than a length of the joined region in the width direction of the side seal . the side seals include a joined region where the front portion (A) and the rear portion (B) are joined with each other, and a fusion bonded region where at least either one of a plurality of constituent sheets for the front portion (A) and a plurality of constituent sheets for the rear portion (B) are fusion bonded, and a length (W2) of the fusion bonded region in a width direction of the side seal is shorter than a length (W) of the side seal in the width direction of the side seal , wherein the fusion bonded region is positioned inward of a center position of the side seal in the width direction of the side seal , and wherein an arrangement pitch (P1) of the joined regions in the longitudinal direction of the side seal is longer than a length of the joined region in the width direction of the side seal .
Electrode for an electric metallurgical furnace comprising - an electrode body made of electrically conductive material, preferably copper or copper alloy, extending between a head end and a tail end along a longitudinal direction (X); - a head , joined to the electrode body ; - cooling channels being made in the electrode body and/or in the head , said channels being suitable for a cooling fluid to pass through for cooling the electrode ; wherein the cooling channels comprise delivery channels suitable to convey the cooling fluid in the direction proceeding from the tail end to the head end and at least one return channel suitable to convey the cooling fluid in the direction proceeding from the head end to the tail end , said delivery channels and said at least one return channel being formed in the electrode body . - an electrode body made of electrically conductive material, preferably copper or copper alloy, extending between a head end and a tail end along a longitudinal direction (X); - a head , joined to the electrode body ; - cooling channels being made in the electrode body and/or in the head , said channels being suitable for a cooling fluid to pass through for cooling the electrode ;
An apparatus (ONU1) comprising: a preamplification semiconductor optical amplifier, SOA, section (SOA1; SOA12) configured to receive at a first output a first optical signal transmitted through an optical fiber and to perform preamplification of the first optical signal to generate at a second output an amplified optical signal; a first photodiode (PD, PON-PD) optically connected to the second output of the preamplification SOA section (SOA1; SOA12) and configured to convert the amplified optical signal into a first electrical signal; a source signal generation SOA section (SOA2; SOA12) configured to generate an Optical Time Domain Reflectometry, OTDR, source signal for transmission through the optical fiber in a direction opposite to the first optical signal; wherein the preamplification SOA section (SOA1) is configured to receive at the first output in response to the OTDR source signal an OTDR back-reflected signal transmitted through the optical fiber and to perform preamplification of the OTDR back-reflected signal. a preamplification semiconductor optical amplifier, SOA, section (SOA1; SOA12) configured to receive at a first output a first optical signal transmitted through an optical fiber and to perform preamplification of the first optical signal to generate at a second output an amplified optical signal; a first photodiode (PD, PON-PD) optically connected to the second output of the preamplification SOA section (SOA1; SOA12) and configured to convert the amplified optical signal into a first electrical signal; a source signal generation SOA section (SOA2; SOA12) configured to generate an Optical Time Domain Reflectometry, OTDR, source signal for transmission through the optical fiber in a direction opposite to the first optical signal; wherein the preamplification SOA section (SOA1) is configured to receive at the first output in response to the OTDR source signal an OTDR back-reflected signal transmitted through the optical fiber and to perform preamplification of the OTDR back-reflected signal.
A light emitter device comprising: a submount comprising an upper surface and a bottom surface; plurality of light emitters (114a-c) disposed on the upper surface of the submount , the plurality of light emitters (114a-c) comprising an upper surface and one or more sides; a light affecting material disposed on the upper surface of the submount and adjacent to the one or more sides of the plurality of light emitters (114a-c); and a single wavelength conversion component disposed over the upper surface of the plurality of light emitters (114a-c), wherein the wavelength conversion component comprises (i) a transparent substrate comprising an upper substrate surface and a lower substrate surface, and (ii) a spray-coated phosphor material disposed on the lower substrate surface, characterized in that the spray-coated phosphor material comprises a mixture of phosphor and silicone, and wherein the spray-coated phosphor material is further disposed on a sidewall of the transparent substrate . a submount comprising an upper surface and a bottom surface; plurality of light emitters (114a-c) disposed on the upper surface of the submount , the plurality of light emitters (114a-c) comprising an upper surface and one or more sides; a light affecting material disposed on the upper surface of the submount and adjacent to the one or more sides of the plurality of light emitters (114a-c); and a single wavelength conversion component disposed over the upper surface of the plurality of light emitters (114a-c), wherein the wavelength conversion component comprises (i) a transparent substrate comprising an upper substrate surface and a lower substrate surface, and (ii) a spray-coated phosphor material disposed on the lower substrate surface, characterized in that the spray-coated phosphor material comprises a mixture of phosphor and silicone, and wherein the spray-coated phosphor material is further disposed on a sidewall of the transparent substrate .
A positive electrode active material for a lithium secondary battery having a core-shell structure comprising: a core composed of lithium transition metal oxides including nickel(Ni), manganese(Mn) and cobalt(Co); and a shell composed of lithium transition metal oxides including cobalt(Co), wherein the lithium transition metal oxide of the core is a compound represented by the following Formula 1, and the lithium transition metal oxide of the shell is a compound represented by the following Formula 2, wherein the lithium transition metal oxide of the core and the lithium transition metal oxide of the shell further include a zirconium(Zr) element, wherein an inorganic material layer of Al 2 O 3 is further formed by coating on the surface of the shell, and wherein the content of the inorganic material layer is 1.1 wt% or more to 3.0 wt% or less based on the total weight of the positive electrode active material: Li y [Ni a Mn b Co 1-(a+b+c) Zr c ]O 2 wherein, 0.55≤a≤0.9, 0.05≤b≤0.5, 0<c≤0.1, a+b+c≤1, 0.98≤y≤1.10; and Li y Co (1-a) Zr a O 2 wherein, 0<a≤0.1, 0.98≤y≤1.10. a core composed of lithium transition metal oxides including nickel(Ni), manganese(Mn) and cobalt(Co); and a shell composed of lithium transition metal oxides including cobalt(Co), wherein the lithium transition metal oxide of the core is a compound represented by the following Formula 1, and the lithium transition metal oxide of the shell is a compound represented by the following Formula 2, wherein the lithium transition metal oxide of the core and the lithium transition metal oxide of the shell further include a zirconium(Zr) element, wherein an inorganic material layer of Al 2 O 3 is further formed by coating on the surface of the shell, and wherein the content of the inorganic material layer is 1.1 wt% or more to 3.0 wt% or less based on the total weight of the positive electrode active material: Li y [Ni a Mn b Co 1-(a+b+c) Zr c ]O 2 wherein, 0.55≤a≤0.9, 0.05≤b≤0.5, 0<c≤0.1, a+b+c≤1, 0.98≤y≤1.10; and Li y Co (1-a) Zr a O 2 wherein, 0<a≤0.1, 0.98≤y≤1.10.
An adhesive composition containing an acid-modified polyolefin (a), an oligo-phenylene ether (b) having a number-average molecular weight of 3000 or less, measured according to the method disclosed in the specification, and an epoxy resin (c), wherein the adhesive composition contains 0.05 to 200 part(s) by mass of the oligo-phenylene ether (b) having a number-average molecular weight of 3000 or less to 100 parts by mass of the acid-modified polyolefin (a), and wherein the adhesive composition satisfies the following requirement(s) (A) and/or (B): (A) The adhesive composition contains more than 20 parts by mass and 60 parts by mass or less of the epoxy resin (c) to 100 parts by mass of the acid-modified polyolefin (a) ; (B) The adhesive composition further contains 0.5 to 20 part(s) by mass of a polycarbodiimide (d) to 100 parts by mass of the acid-modified polyolefin (a), and 0.5 to 60 part(s) by mass of the epoxy resin (c) to 100 parts by mass of the acid-modified polyolefin (a). (A) The adhesive composition contains more than 20 parts by mass and 60 parts by mass or less of the epoxy resin (c) to 100 parts by mass of the acid-modified polyolefin (a) ; (B) The adhesive composition further contains 0.5 to 20 part(s) by mass of a polycarbodiimide (d) to 100 parts by mass of the acid-modified polyolefin (a), and 0.5 to 60 part(s) by mass of the epoxy resin (c) to 100 parts by mass of the acid-modified polyolefin (a).
An implantable tissue marker device to be placed in a soft tissue site through a surgical incision, comprising: - a bioabsorbable body having the form of a spiral and defining a spheroid shape for the device , the spiral having a longitudinal axis , and turns of the spiral being spaced apart from each other in a direction along the longitudinal axis ; - a plurality of markers disposed on the body , the markers being visualizable by a radiographic imaging device; wherein the turns of the spiral are sufficiently spaced apart to form gaps that allow soft tissue to infiltrate between the turns and to allow flexibility in the device along the longitudinal axis in the manner of a spring, wherein the bioabsorbable body includes opposed polar regions along the longitudinal axis , characterized in that each one of the polar regions includes a polar extension that is directed towards an interior of the device . - a bioabsorbable body having the form of a spiral and defining a spheroid shape for the device , the spiral having a longitudinal axis , and turns of the spiral being spaced apart from each other in a direction along the longitudinal axis ; - a plurality of markers disposed on the body , the markers being visualizable by a radiographic imaging device; wherein the turns of the spiral are sufficiently spaced apart to form gaps that allow soft tissue to infiltrate between the turns and to allow flexibility in the device along the longitudinal axis in the manner of a spring, wherein the bioabsorbable body includes opposed polar regions along the longitudinal axis , characterized in that each one of the polar regions includes a polar extension that is directed towards an interior of the device .