mhurhangee/patent-ind-claim-en huggingface dataset:
A medical, in particular dental, handle (1, 1', 1", 1′′′) for driving a medical instrument, comprising a housing (2, 2', 2", 2′′′) with a drive device accommodated therein and/or a supply line for a drive device , a first connection device (5, 5', 5", 5"') for connection of a medical, in particular dental, instrument and a second connection device (6, 6', 6", 6′′′) for connecting the handle (1, 1', 1", 1′′′) to a media source and/or a drive unit, at least one electric component (7, 7', 7", 7′′′), at least one electric contact (8, 8', 8", 8′′′; 9, 9', 9", 9′′′) and one electric connecting device (10, 10', 10", 10′′′) which electrically connects the at least one electric component (7, 7', 7", 7′′′) and the at least one electric contact (8, 8', 8", 8′′′; 9, 9', 9", 9′′′) for the transmission of data and/ or energy, wherein the electrical connection device (10, 10', 10", 10′′′) comprises a flexible printed circuit board (11, 11', 11", 11′′′) arranged inside the handle (1, 1', 1", 1′′′), which extends through the medical, in particular dental, handle (1, 1', 1", 1′′′) between the at least one electrical contact (8, 8', 8", 8′′′; 9, 9', 9", 9′′′) and the at least one electrical component (7, 7', 7", 7′′′) with a strip-shaped section and a second section arranged at an angle to the strip-shaped section, characterized in that the second section has a recess (23, 23', 23", 23′′′) through which the drive device , the supply line and/or at least one of the connection devices (5, 5', 5", 5′′′; 6, 6', 6", 6′′′) extend(s), wherein the second section with the recess (23, 23', 23", 23′′′) is spaced from the at least one electrical component (7, 7', 7", 7′′′) and is connected by the strip-shaped section to the at least one electrical component (7, 7', 7", 7′′′).
A method for operation of a molding system , the method comprising: flowing a first molten polymeric material from an upstream device into a first in-mold tuning chamber in a filling position where the first in-mold tuning chamber is positioned at least partially within a mold cavity ; adjusting at least one of a temperature of and a pressure applied to the first molten polymeric material in the first in-mold tuning chamber to create a first tuned molten polymeric material; releasing the first tuned molten polymeric material into the mold cavity from the first in-mold tuning chamber , and characterised by removing the first in-mold tuning chamber from the mold cavity . flowing a first molten polymeric material from an upstream device into a first in-mold tuning chamber in a filling position where the first in-mold tuning chamber is positioned at least partially within a mold cavity ; adjusting at least one of a temperature of and a pressure applied to the first molten polymeric material in the first in-mold tuning chamber to create a first tuned molten polymeric material; releasing the first tuned molten polymeric material into the mold cavity from the first in-mold tuning chamber , and characterised by removing the first in-mold tuning chamber from the mold cavity .
Single-pole test pin for detachably contacting an electrically conductive and pin-shaped contact partner, wherein the test pin is configured to establish only a single electrical connection from the contact partner to a test device, said test pin comprising a piston which is longitudinally displaceably mountable in a guide sleeve and has means for electrically conductive contacting of the contact partner at a free end, characterized in that a circumferential wall of the electrically conductive piston has at least one radial recess at its free end, in which at least one helical spring is arranged as a means for electrically conductive contacting of the contact partner, which extends transversely to the longitudinal extent of the piston and projects radially from the circumferential wall .
An atomizing head , comprising: a main body ; a liquid inlet ; an air inlet ; an air outlet ; an air passage in communication with the air inlet and the air outlet ; a connecting electrode ; a liquid conducting element in the main body , the liquid conducting element being configured for absorbing tobacco liquid flowed in through the liquid inlet ; a heating element in the main body , the heating element being in contact with the liquid conducting element , and configured for heating the tobacco liquid absorbed in the liquid conducting element to form aerosol, the aerosol being expelled via the air passage; and a connecting part configured for coupling with an atomizer ; wherein the atomizing head further comprises a temperature sensing element configured for sensing a temperature of the aerosol, characterized in that the atomizing head further comprises a gauze in the main body , the gauze is in the air passage, configured for supporting the temperature sensing element , and allows the aerosol to pass through. a main body ; a liquid inlet ; an air inlet ; an air outlet ; an air passage in communication with the air inlet and the air outlet ; a connecting electrode ; a liquid conducting element in the main body , the liquid conducting element being configured for absorbing tobacco liquid flowed in through the liquid inlet ; a heating element in the main body , the heating element being in contact with the liquid conducting element , and configured for heating the tobacco liquid absorbed in the liquid conducting element to form aerosol, the aerosol being expelled via the air passage; and a connecting part configured for coupling with an atomizer ; wherein the atomizing head further comprises a temperature sensing element configured for sensing a temperature of the aerosol, characterized in that the atomizing head further comprises a gauze in the main body , the gauze is in the air passage, configured for supporting the temperature sensing element , and allows the aerosol to pass through.
A compound of formula (I): or an N-oxide thereof, or a pharmaceutically acceptable salt of each thereof, or a pharmaceutically acceptable solvate of each of the foregoing, wherein R 1 is H or has a structure of: R 3 is H, an optionally substituted C 1 -C 8 alkyl, an optionally substituted 3-10 membered cycloalkyl, an optionally substituted 3-10 membered heterocyclyl, an optionally substituted 6-10 membered aryl, or an optionally substituted 5-10 membered heteroaryl; R 5 is H or has a structure of: and R 11 and R 12 independently is an optionally substituted C 1 -C 8 alkyl. R 1 is H or has a structure of: R 3 is H, an optionally substituted C 1 -C 8 alkyl, an optionally substituted 3-10 membered cycloalkyl, an optionally substituted 3-10 membered heterocyclyl, an optionally substituted 6-10 membered aryl, or an optionally substituted 5-10 membered heteroaryl; R 5 is H or has a structure of: and R 11 and R 12 independently is an optionally substituted C 1 -C 8 alkyl.
Process for performing the following reaction with a catalyst: CO 2 + 4 H 2 -> CH 4 + 2 H 2 O characterized in that : - said catalyst is based on the combination of ceria and nickel; and - said catalyst is activated by a DBD (dielectric barrier discharge) plasma. - said catalyst is based on the combination of ceria and nickel; and - said catalyst is activated by a DBD (dielectric barrier discharge) plasma.
An esterase mutant consisting of the amino acid sequence shown in SEQ ID NO: 1 containing the mutation N51G.
A turbine blade machining method of machining a through-hole in a turbine blade, wherein a protective film is formed on a surface of a substrate of the turbine blade, characterised in that the machining method comprises: an insertion step (S16) of inserting a machining tool , comprising a grinding region (18;28;38) provided at a tip portion (16;26) thereof, into the through-hole with such an orientation that the grinding region (18;28;38) faces the surface of the through-hole ; a removal step (S18) of grinding the protective film laminated in the through-hole with the grinding region(18; 28; 38) of the machining tool inserted into the through-hole , to remove the protective film laminated in the through-hole ; and a pretreatment step (S32) of, before the insertion step (S16), inserting a rod-shaped machining tool , comprising a grinding region provided at a tip portion thereof, into the through-hole with such an orientation that the grinding region faces the surface of the through-hole , and grinding the protective film by bringing the grinding region of the rod-shaped machining tool inserted into the through-hole into contact with the protective film while rotating the grinding region to remove a portion of the protective film laminated in the through-hole . an insertion step (S16) of inserting a machining tool , comprising a grinding region (18;28;38) provided at a tip portion (16;26) thereof, into the through-hole with such an orientation that the grinding region (18;28;38) faces the surface of the through-hole ; a removal step (S18) of grinding the protective film laminated in the through-hole with the grinding region(18; 28; 38) of the machining tool inserted into the through-hole , to remove the protective film laminated in the through-hole ; and a pretreatment step (S32) of, before the insertion step (S16), inserting a rod-shaped machining tool , comprising a grinding region provided at a tip portion thereof, into the through-hole with such an orientation that the grinding region faces the surface of the through-hole , and grinding the protective film by bringing the grinding region of the rod-shaped machining tool inserted into the through-hole into contact with the protective film while rotating the grinding region to remove a portion of the protective film laminated in the through-hole .
Device for lateral guidance of a metal strip , in particular for a roller-table section in a rolling mill , having a housing and having a rotary element which is mounted in the housing so as to be rotatable and axially displaceable , wherein a wearing element for lateral guidance of a metal strip is arranged on the rotary element , characterized by at least one first supporting surface on an end face of the rotary element and one second supporting surface , situated axially opposite said first supporting surface , on the housing , wherein the rotary element is mounted in the housing in such a way that, under the action of an axial force on the rotary element , the axial displaceability of the rotary element is limited by the support of the first supporting surface against the second supporting surface , and wherein the rotary element - is connected to a gear mechanism, and/or - is a component of a gear wheel of a mechanical gear mechanism , and/or - is a gear wheel of a mechanical gear mechanism . wherein a wearing element for lateral guidance of a metal strip is arranged on the rotary element , characterized by at least one first supporting surface on an end face of the rotary element and one second supporting surface , situated axially opposite said first supporting surface , on the housing , wherein the rotary element is mounted in the housing in such a way that, under the action of an axial force on the rotary element , the axial displaceability of the rotary element is limited by the support of the first supporting surface against the second supporting surface , and wherein the rotary element - is connected to a gear mechanism, and/or - is a component of a gear wheel of a mechanical gear mechanism , and/or - is a gear wheel of a mechanical gear mechanism . - is connected to a gear mechanism, and/or - is a component of a gear wheel of a mechanical gear mechanism , and/or - is a gear wheel of a mechanical gear mechanism .
A communication and control system for remotely monitoring the internal environmental of a reusable cryogenic container and remotely controlling the container, the system having an OTG-ready microcontroller , the OTG-ready microcontroller having a universal serial bus (USB) for connecting to a smart device through a USB Bluetooth or USB Wi Fi link, the system comprising : digital data sensors monitoring the contents of the container and identity of a person having custody of the container, the digital data sensors including an IR diode for exchanging data with a remote IR source, the digital data sensors providing the sensed data to the OTG-ready microcontroller ; analog data sensors detecting internal temperature of the container, the analog data sensors providing the sensed data to the OTG-ready microcontroller ; and a plurality of active devices connected to outputs of the OTG-ready microcontroller, the plurality of active devices including IR diodes ; whereby the OTG-ready microcontroller sends data received by the OTG-ready microcontroller to the smart device and receives data from the smart device , the OTG-ready microcontroller controlling the plurality of active devices and the IR diodes to exchange data with an IR diode on another different cryogenic container. digital data sensors monitoring the contents of the container and identity of a person having custody of the container, the digital data sensors including an IR diode for exchanging data with a remote IR source, the digital data sensors providing the sensed data to the OTG-ready microcontroller ; analog data sensors detecting internal temperature of the container, the analog data sensors providing the sensed data to the OTG-ready microcontroller ; and a plurality of active devices connected to outputs of the OTG-ready microcontroller, the plurality of active devices including IR diodes ; whereby the OTG-ready microcontroller sends data received by the OTG-ready microcontroller to the smart device and receives data from the smart device , the OTG-ready microcontroller controlling the plurality of active devices and the IR diodes to exchange data with an IR diode on another different cryogenic container.
An engine assembly for a gas turbine engine, comprising (a) a combustor ; (b) a fuel cell stack integrated with the combustor , the fuel cell stack configured to direct fuel and air exhaust from the fuel cell stack into the combustor ; and (c) a pre-burner system fluidly connected to the fuel cell stack , the pre-burner system being configured to control a temperature of an air flow directed into the fuel cell stack , wherein the combustor is configured to combust the fuel and air exhaust from the fuel cell stack into one or more gaseous combustion products that drive, in use, a downstream turbine , the engine assembly further comprising a catalytic partial oxidation convertor that is fluidly connected to the fuel cell stack , wherein the catalytic partial oxidation convertor is configured to develop a hydrogen rich fuel stream to be directed into the fuel cell stack , the engine assembly further comprising a fuel source that provides fuel and is fluidly connected to the pre-burner system and the catalytic partial oxidation convertor , wherein (i) a first portion of the fuel is directed from the fuel source to the pre-burner system to raise a temperature of a portion of air directed, in use, into the pre-burner system from a compressor , and (ii) a second portion of the fuel is directed from the fuel source to the catalytic partial oxidation convertor for developing the hydrogen rich fuel stream . (a) a combustor ; (b) a fuel cell stack integrated with the combustor , the fuel cell stack configured to direct fuel and air exhaust from the fuel cell stack into the combustor ; and (c) a pre-burner system fluidly connected to the fuel cell stack , the pre-burner system being configured to control a temperature of an air flow directed into the fuel cell stack , wherein the combustor is configured to combust the fuel and air exhaust from the fuel cell stack into one or more gaseous combustion products that drive, in use, a downstream turbine , the engine assembly further comprising a catalytic partial oxidation convertor that is fluidly connected to the fuel cell stack , wherein the catalytic partial oxidation convertor is configured to develop a hydrogen rich fuel stream to be directed into the fuel cell stack , the engine assembly further comprising a fuel source that provides fuel and is fluidly connected to the pre-burner system and the catalytic partial oxidation convertor , wherein (i) a first portion of the fuel is directed from the fuel source to the pre-burner system to raise a temperature of a portion of air directed, in use, into the pre-burner system from a compressor , and (ii) a second portion of the fuel is directed from the fuel source to the catalytic partial oxidation convertor for developing the hydrogen rich fuel stream .
A transistor having a vertical structure, comprising: a first electrode (E1) disposed on a substrate (SUB), an insulation pattern (INP) disposed on the substrate (SUB), the insulation pattern (INP) overlapping with an edge of the first electrode (E1), a second electrode (E2) disposed on an upper surface of the insulation pattern (INP), an active layer (ACT) disposed on the first electrode (E1), the insulation pattern (INP) and the second electrode (E2), a gate insulating film (INS) disposed on the active layer (ACT), and a gate electrode (GATE) disposed on the gate insulating film (INS), wherein a first portion of the active layer (ACT) overlaps with the first electrode (E1), a second portion of the active layer (ACT) overlaps with the second electrode (E2), and a channel area of the active layer (CHA) is between the first portion of the active layer (ACT) and the second portion of the active layer (ACT), and wherein the channel area (CHA) includes a first channel portion (CHA1) disposed along a side surface of the insulation pattern (INP) and a second channel portion (CHA2) disposed on a portion of the upper surface of the insulation pattern (INP), the second channel portion (CHA2) extending from an edge (A) of the second electrode (E2) to the first channel portion (CHA1), characterized in that the gate insulating film (INS) includes a first portion overlapping with the second channel portion (CHA2) and having a first thickness (t1) and a second portion disposed along the side surface of the insulation pattern (INP) and having a second thickness (t2) less than the first thickness (t1). a first electrode (E1) disposed on a substrate (SUB), an insulation pattern (INP) disposed on the substrate (SUB), the insulation pattern (INP) overlapping with an edge of the first electrode (E1), a second electrode (E2) disposed on an upper surface of the insulation pattern (INP), an active layer (ACT) disposed on the first electrode (E1), the insulation pattern (INP) and the second electrode (E2), a gate insulating film (INS) disposed on the active layer (ACT), and a gate electrode (GATE) disposed on the gate insulating film (INS), wherein a first portion of the active layer (ACT) overlaps with the first electrode (E1), a second portion of the active layer (ACT) overlaps with the second electrode (E2), and a channel area of the active layer (CHA) is between the first portion of the active layer (ACT) and the second portion of the active layer (ACT), and wherein the channel area (CHA) includes a first channel portion (CHA1) disposed along a side surface of the insulation pattern (INP) and a second channel portion (CHA2) disposed on a portion of the upper surface of the insulation pattern (INP), the second channel portion (CHA2) extending from an edge (A) of the second electrode (E2) to the first channel portion (CHA1), characterized in that the gate insulating film (INS) includes a first portion overlapping with the second channel portion (CHA2) and having a first thickness (t1) and a second portion disposed along the side surface of the insulation pattern (INP) and having a second thickness (t2) less than the first thickness (t1).
An endoscope , comprising: an insertion portion ; and an operation unit that is connected to one end of the insertion portion , wherein the insertion portion includes a tube that is provided with a plurality of channels penetrating in a longitudinal direction, wherein the operation unit is connected to one end of the tube , and a distal tip that covers another end of the tube and has a through hole that smoothly communicates with a part of the plurality of channels , wherein the endoscope comprises: a single-use portion (S) that is used once and then discarded; and a reusable portion (R) that is removed from the single-use portion (S) and reused, wherein the single-use portion (S) includes the tube , and wherein the reusable portion (R) includes the distal tip , characterized in that the insertion portion includes a fractured portion of a tube shape that covers a joint between the tube and the distal tip and is fractured when the single-use portion (S) and the reusable portion (R) are separated. an insertion portion ; and an operation unit that is connected to one end of the insertion portion , wherein the insertion portion includes a tube that is provided with a plurality of channels penetrating in a longitudinal direction, wherein the operation unit is connected to one end of the tube , and a distal tip that covers another end of the tube and has a through hole that smoothly communicates with a part of the plurality of channels , wherein the endoscope comprises: a single-use portion (S) that is used once and then discarded; and a reusable portion (R) that is removed from the single-use portion (S) and reused, wherein the single-use portion (S) includes the tube , and wherein the reusable portion (R) includes the distal tip , characterized in that the insertion portion includes a fractured portion of a tube shape that covers a joint between the tube and the distal tip and is fractured when the single-use portion (S) and the reusable portion (R) are separated. a single-use portion (S) that is used once and then discarded; and a reusable portion (R) that is removed from the single-use portion (S) and reused, wherein the single-use portion (S) includes the tube , and wherein the reusable portion (R) includes the distal tip , characterized in that the insertion portion includes a fractured portion of a tube shape that covers a joint between the tube and the distal tip and is fractured when the single-use portion (S) and the reusable portion (R) are separated.
A chimeric influenza virus hemagglutinin (HA) polypeptide comprising the stem domain of the HA of influenza virus A/California/4/2009 (H1N1) and the globular head domain of the HA of influenza virus A/Vietnam/1203/2004 (H5).
A mounting system , comprising: a socket structure having an interior surface that defines a void , the void extending a designated distance along an axis from a first point corresponding to an exterior surface of the socket structure toward an interior of the socket structure , the interior surface having a first portion and a second portion , the first portion having threads configured to frictionally engage a threaded post , the first portion positioned between the first point and the second portion , the second portion including a taper that is configured to frictionally engage a threadless post ; and at least one of a magnet or a ferromagnetic element configured to cause the threadless post to slide over the threads of the first portion and to become magnetically engaged with the second portion . a socket structure having an interior surface that defines a void , the void extending a designated distance along an axis from a first point corresponding to an exterior surface of the socket structure toward an interior of the socket structure , the interior surface having a first portion and a second portion , the first portion having threads configured to frictionally engage a threaded post , the first portion positioned between the first point and the second portion , the second portion including a taper that is configured to frictionally engage a threadless post ; and at least one of a magnet or a ferromagnetic element configured to cause the threadless post to slide over the threads of the first portion and to become magnetically engaged with the second portion .