mhurhangee/patent-ind-claim-en huggingface dataset:
Relative pressure sensor , comprising: a pressure measuring cell with a measuring membrane and a meter body , wherein the measuring membrane is connected in a pressure-tight manner to the meter body by forming a measuring chamber between the meter body and the measuring membrane , wherein the measuring chamber can be exposed to a reference pressure by means of a reference pressure channel , which extends from the measuring chamber through the meter body to a rear side of the meter body facing away from the measuring chamber; a clamping ring; and a housing , which has at least a housing body with a measuring cell chamber in its interior, wherein the pressure measuring cell is arranged in the measuring cell chamber and is clamped axially with the clamping ring , which is engaged with the housing body, wherein the housing has a reference air opening , wherein the reference pressure channel communicates with the reference air opening via a reference air path, which extends through the measuring cell chamber and has a path volume which is separate from the volume of the measuring chamber, wherein the reference air path has a section, which extends along the rear side of the meter body, wherein the section is limited by a guide body and the rear side of the meter body, wherein the guide body is clamped against the rear side of the meter body and covers over an opening of the reference pressure channel in the rear side of the meter body. a pressure measuring cell with a measuring membrane and a meter body , wherein the measuring membrane is connected in a pressure-tight manner to the meter body by forming a measuring chamber between the meter body and the measuring membrane , wherein the measuring chamber can be exposed to a reference pressure by means of a reference pressure channel , which extends from the measuring chamber through the meter body to a rear side of the meter body facing away from the measuring chamber; a clamping ring; and a housing , which has at least a housing body with a measuring cell chamber in its interior, wherein the pressure measuring cell is arranged in the measuring cell chamber and is clamped axially with the clamping ring , which is engaged with the housing body, wherein the housing has a reference air opening , wherein the reference pressure channel communicates with the reference air opening via a reference air path, which extends through the measuring cell chamber and has a path volume which is separate from the volume of the measuring chamber, wherein the reference air path has a section, which extends along the rear side of the meter body, wherein the section is limited by a guide body and the rear side of the meter body, wherein the guide body is clamped against the rear side of the meter body and covers over an opening of the reference pressure channel in the rear side of the meter body.
A header of a combine harvester comprising a frame and a row unit (200A-D) extending forwardly of the frame , the row unit (200A-D) including a pair of stalk rolls , a pair of deck plates and a pair of rollers (310A, 310A', 310A", 310B, 310B', 310B", 700A, 700B, 800A, 800B, 904A, 904B, 1000A) spaced from and above the pair of stalk rolls , characterized in that the pair of rollers (310A, 310A', 310A", 310B, 310B', 310B", 700A, 700B, 800A, 800B, 904A, 904B, 1000A) are formed from a pliable material.
An engine oil lubricant composition comprising: (a) a polyalpha olefin base oil component in an amount of 50 wt% to 90 wt% based on the total weight of the engine oil lubricant composition, wherein the polyalpha olefin base oil component is a Group IV base oil and has a Noack volatility of 12.5% to 15%, (b) a Group II base oil component in an amount of 0.1 wt% to 50 wt% based on the total weight of the engine oil lubricant composition, (c) a non-borated succinimide dispersant having a peak molecular weight of 6000 or less as determined using gel permeation chromatography with polystyrene calibration standard, in an amount of 0.1 wt% to 8 wt% based on the total weight of the engine oil lubricant composition, and (d) a friction modifier, wherein the engine oil lubricant composition has a kinematic viscosity at 100°C of 10 cSt or less, a high temperature high shear viscosity at 150°C of 2.2 cP or less, and a Noack volatility of 20% or less. (a) a polyalpha olefin base oil component in an amount of 50 wt% to 90 wt% based on the total weight of the engine oil lubricant composition, wherein the polyalpha olefin base oil component is a Group IV base oil and has a Noack volatility of 12.5% to 15%, (b) a Group II base oil component in an amount of 0.1 wt% to 50 wt% based on the total weight of the engine oil lubricant composition, (c) a non-borated succinimide dispersant having a peak molecular weight of 6000 or less as determined using gel permeation chromatography with polystyrene calibration standard, in an amount of 0.1 wt% to 8 wt% based on the total weight of the engine oil lubricant composition, and (d) a friction modifier,
An item of footwear including: a midsole ; an insole , releasably coupled to the midsole , a sole , releasably coupled to the midsole , and an upper ; and wherein the upper is releasably coupled to the midsole by a locking member , configured to be slid along and locked into a channel of the midsole , the locking member held in place by the insole , which fits over the midsole and over the locking member and channel . a midsole ; an insole , releasably coupled to the midsole , a sole , releasably coupled to the midsole , and an upper ; and wherein the upper is releasably coupled to the midsole by a locking member , configured to be slid along and locked into a channel of the midsole , the locking member held in place by the insole , which fits over the midsole and over the locking member and channel .
A vane comprising: a platform extending from an edge face and between spaced apart lateral faces ; and an airfoil extending outwardly from said platform , said platform including a plurality of ejection ports in said edge face and a plurality of passages connected to said plurality of ejection ports , and said edge face is a trailing edge face , characterised in that : the plurality of passages are configured to eject coolant in a direction that impinges an exposed surface of a blade outer air seal ; and said trailing edge face defines a localized cooling region distributed about a cooling plane extending from said trailing edge face in the direction of a vector extending downstream from a trailing edge of the airfoil , and a localized concentration of said plurality of ejection ports in said localized cooling region being greater than a total concentration of said plurality of ejection ports in said trailing edge face . a platform extending from an edge face and between spaced apart lateral faces ; and an airfoil extending outwardly from said platform , said platform including a plurality of ejection ports in said edge face and a plurality of passages connected to said plurality of ejection ports , and said edge face is a trailing edge face , characterised in that : the plurality of passages are configured to eject coolant in a direction that impinges an exposed surface of a blade outer air seal ; and said trailing edge face defines a localized cooling region distributed about a cooling plane extending from said trailing edge face in the direction of a vector extending downstream from a trailing edge of the airfoil , and a localized concentration of said plurality of ejection ports in said localized cooling region being greater than a total concentration of said plurality of ejection ports in said trailing edge face . the plurality of passages are configured to eject coolant in a direction that impinges an exposed surface of a blade outer air seal ; and said trailing edge face defines a localized cooling region distributed about a cooling plane extending from said trailing edge face in the direction of a vector extending downstream from a trailing edge of the airfoil , and a localized concentration of said plurality of ejection ports in said localized cooling region being greater than a total concentration of said plurality of ejection ports in said trailing edge face .
The use of a catalyst in a hydrogenation reaction of alkyne to alkene, the catalyst comprising: a polymer support; and a catalytic component supported on the polymer support, wherein the polymer support consists of a repeating unit represented by the following Formula 1: in Formula 1, R1 to R4 are the same as or different from each other, and are each independently hydrogen, an alkyl group having 1 to 10 carbon atoms, or an aryl group having 6 to 20 carbon atoms, or adjacent groups are optionally bonded to each other to form a hydrocarbon ring. a polymer support; and a catalytic component supported on the polymer support, wherein the polymer support consists of a repeating unit represented by the following Formula 1: in Formula 1, R1 to R4 are the same as or different from each other, and are each independently hydrogen, an alkyl group having 1 to 10 carbon atoms, or an aryl group having 6 to 20 carbon atoms, or adjacent groups are optionally bonded to each other to form a hydrocarbon ring.
An electronic apparatus , comprising: a housing having a light transmission portion ; and a covering structure comprising a plurality of coating layers sequentially stacked above the light transmission portion , the coating layers respectively having different thicknesses, different refractive indices, different reflectivities, and different transmissivities, characterised by : each coating layer transmits a respective portion of light in the direction of the light transmission portion and reflects a portion of light away from the light transmission portion , such that reflected light reflected away from the light transmission portion by the covering structure presents a virtual image (V) with a pattern. a housing having a light transmission portion ; and a covering structure comprising a plurality of coating layers sequentially stacked above the light transmission portion , the coating layers respectively having different thicknesses, different refractive indices, different reflectivities, and different transmissivities, characterised by : each coating layer transmits a respective portion of light in the direction of the light transmission portion and reflects a portion of light away from the light transmission portion , such that reflected light reflected away from the light transmission portion by the covering structure presents a virtual image (V) with a pattern.
An ultrasonic oscillator unit that is disposed in a distal end part of an endoscope insertion part and has a plurality of ultrasonic oscillators , wherein the ultrasonic oscillators each have a piezoelectric body , a cable that is electrically bonded to the piezoelectric body is inserted into an internal space of the distal end part , at least one of a plurality of electrical bonded portions from the cable to the piezoelectric body is bonded by a resin material having conductivity, the at least one of the plurality of electrical bonded portions using the resin material is covered with a first resin layer whose material is different from that of the resin material , and the first resin layer is made of gas barrier epoxy resin . wherein the ultrasonic oscillators each have a piezoelectric body , a cable that is electrically bonded to the piezoelectric body is inserted into an internal space of the distal end part , at least one of a plurality of electrical bonded portions from the cable to the piezoelectric body is bonded by a resin material having conductivity, the at least one of the plurality of electrical bonded portions using the resin material is covered with a first resin layer whose material is different from that of the resin material , and the first resin layer is made of gas barrier epoxy resin .
A high-strength galvanized and alloyed steel sheet having a tensile strength of 550 MPa or more and excellent anti-burring performance, consisting of: C: 0.04% or more and 0.13% or less, Si: 1.0% or more and 2.3% or less, Mn: 0.8% or more and 2.0% or less, P: 0.05% or less, S: 0.0010% or more and 0.01% or less, optionally Al: 0.01 to 0.1%, N: 0.008% or less on a mass percent basis, and optionally one or more of Cr: 0.05% or more and 1.0% or less, V: 0.005% or more and 0.5% or less, Mo: 0.005% or more and 0.5% or less, B: 0.0003% or more and 0.005% or less, Ni: 0.05% or more and 1.0% or less, Cu: 0.05% or more and 1.0% or less, Ti: 0.01% or more and 0.1% or less, Nb: 0.01% or more and 0.1% or less, Ta: 0.001% or more and 0.010% or less, Sn: 0.002% or more and 0.2% or less, Sb: 0.002% or more and 0.2% or less on a mass percent basis, and the remainder of Fe and incidental impurities, wherein a ferrite phase constitutes 75% or more, a bainitic ferrite phase constitutes 1% or more, a pearlite phase constitutes 1% or more and 10% or less, and a martensite phase constitutes less than 5% on an area ratio basis, and the area ratio of the martensite phase/(the area ratio of the bainitic ferrite phase + the area ratio of the pearlite phase) is 0.5 or less, with the exception of the steel sheets 1, 3-8, 12, 14, 23-28, 30-35, 37, 39, 41-46, 48-53 according to EP 2 402 470 A1.
A machine arrangement for the sequential processing of sheet-type substrates having multiple different processing stations, wherein two of the processing stations arranged along the transport path of the substrates each have at least one non-impact printing unit (06; 37) for printing each of the substrates configured as an inkjet printing device, wherein processing stations having the non-impact printing units (06; 37) each have a printing cylinder (22; 38), wherein the first printing cylinder (22; 38) in the transport direction (T) of the substrates is configured triple-sized or quadruple-sized, wherein a plurality of inkjet printing devices is arranged successively along a portion of the circumference of the first printing cylinder (22; 38), wherein the second printing cylinder in the transport direction (T) of the substrates is configured triple-sized or quadruple-sized, wherein a plurality of inkjet printing devices is arranged successively along a portion of the circumference of the second printing cylinder , wherein in each case a plurality of substrates are arranged or at least can be arranged in tandem on the lateral surface of the respective printing cylinder (22; 38) in each case in circumferential direction, wherein the respective printing cylinder (22; 38) in each case has on its circumference at least so many holding elements that three or four substrates are arranged or at least can be arranged one behind the other on its circumference, each being held in force-fitting and/or form-fitting manner, wherein in the transport direction (T) of the relevant substrates in each case a processing station with a dryer for drying the relevant substrates printed with the non-impact printing unit (06; 37) is arranged after the respective processing station with the respective non-impact printing unit (06; 37) printing the substrates, wherein the dryer to dry the substrates printed respectively on the front side with the relevant non-impact printing unit and/or the dryer to dry the substrates printed respectively on the rear side with the relevant non-impact printing unit is or are configured as a dryer drying the relevant printed substrates respectively by a radiation with ultraviolet radiation, wherein a turning device is arranged between the first printing cylinder and the second printing cylinder , characterized in that the respective printing cylinder (22; 38) is respectively configured as a suction cylinder, wherein in each case the supply of suction air to the relevant printing cylinder (22; 38) is or at least can be switched on and off in each case dependent on an angular position of this printing cylinder (22; 38).
A foldaway mirror assembly comprising: a support member ; a support arm pivotally connected to the support member ; a mirror member pivotally connected to the support arm ; the support arm having upper and lower portions that are rotatably connected to each other so that the mirror member can be rotated and pivoted with respect to the support member ; first and second pivot connections , connecting the respective support member and mirror member , to the support arm and each comprising a click-stop mechanism for establishing a plurality of firm but movable pivot positions for the support arm on the support member and for the mirror member on the support arm ; a non-magnifying mirror on one side of the mirror member ; a magnifying mirror on an opposite side of the mirror member ; at least one light source mounted to the mirror member for illuminating the non-magnifying mirror and the magnifying mirror ; and a power supply in the support member , electrically connected to the light source for powering the light source, characterized in that the click-stop mechanisms of each the first and second pivot connections comprises a semi-cylindrical portion connected to either the support arm or the mirror member with a plurality of circumferentially spaced stop tabs thereon, and a resiliently mounted stop boss connected to either the support arm or the support member , for engaging between a pair of said stop tabs to establish each pivot position. a support member ; a support arm pivotally connected to the support member ; a mirror member pivotally connected to the support arm ; the support arm having upper and lower portions that are rotatably connected to each other so that the mirror member can be rotated and pivoted with respect to the support member ; first and second pivot connections , connecting the respective support member and mirror member , to the support arm and each comprising a click-stop mechanism for establishing a plurality of firm but movable pivot positions for the support arm on the support member and for the mirror member on the support arm ; a non-magnifying mirror on one side of the mirror member ; a magnifying mirror on an opposite side of the mirror member ; at least one light source mounted to the mirror member for illuminating the non-magnifying mirror and the magnifying mirror ; and a power supply in the support member , electrically connected to the light source for powering the light source, characterized in that the click-stop mechanisms of each the first and second pivot connections comprises a semi-cylindrical portion connected to either the support arm or the mirror member with a plurality of circumferentially spaced stop tabs thereon, and a resiliently mounted stop boss connected to either the support arm or the support member , for engaging between a pair of said stop tabs to establish each pivot position.
Use of a cooling device for cooling a metallic material , comprising: at least one cooling bar with a plurality of coolant application elements for action on the metallic material with a coolant, wherein each coolant application element has an outlet opening with a cross-sectional area for issue of the coolant; wherein the density of the cross-sectional areas of the outlet openings of the coolant application elements in width direction (y) of the cooling bar is distributed and dimensioned in accordance with the amount of the gradient (δ) of the distribution of the temperature of the metallic material over the width (y) thereof prior to entry below the cooling bars and increases when the temperature in this width direction rises or conversely; wherein the density of the cross-sectional areas of the outlet openings of the coolant application elements is represented by the spacing a, which is projected onto the width direction y of the cooling bar , between two adjacent coolant application elements; and the projected spacing a between two adjacent coolant application elements in width direction y of the cooling bar is greater towards an edge of the cooling bar when the temperature of the metallic material in direction towards this edge of the cooling bar drops; or the projected spacing a between two adjacent coolant application elements in width direction y of the cooling bar is smaller towards an edge of the cooling bar when the temperature of the metallic material in direction towards this edge of the cooling bar rises. at least one cooling bar with a plurality of coolant application elements for action on the metallic material with a coolant, wherein each coolant application element has an outlet opening with a cross-sectional area for issue of the coolant; wherein the density of the cross-sectional areas of the outlet openings of the coolant application elements in width direction (y) of the cooling bar is distributed and dimensioned in accordance with the amount of the gradient (δ) of the distribution of the temperature of the metallic material over the width (y) thereof prior to entry below the cooling bars and increases when the temperature in this width direction rises or conversely; wherein the density of the cross-sectional areas of the outlet openings of the coolant application elements is represented by the spacing a, which is projected onto the width direction y of the cooling bar , between two adjacent coolant application elements; and the projected spacing a between two adjacent coolant application elements in width direction y of the cooling bar is greater towards an edge of the cooling bar when the temperature of the metallic material in direction towards this edge of the cooling bar drops; or the projected spacing a between two adjacent coolant application elements in width direction y of the cooling bar is smaller towards an edge of the cooling bar when the temperature of the metallic material in direction towards this edge of the cooling bar rises.
A method for provisioning a plurality of electronic devices with a respective provisioning data set , wherein each electronic device comprises a hardware security enclave providing a secret device master key , wherein the method comprises in a test provisioning stage: generating at least one test application key (305a-n) in plaintext and encrypting the at least one test application key (305a-n) using a first wrapping key for generating at least one encrypted test application key (305a'-n'); encrypting the first wrapping key using the secret device master key for generating an encrypted first wrapping key ; provisioning at least one of the plurality of electronic devices with a respective first provisioning data set , wherein the respective first provisioning data set comprises the at least one test application key (305a-n) in plaintext, the at least one encrypted test application key (305a'-n') and the encrypted first wrapping key ; and testing a security function of the electronic device on the basis of at least a portion of the first provisioning data set , such as the plaintext test application key (305a-n) and the encrypted test application key (305a'-n'), for debugging the first provisioning data set in order to test and develop the provisioning of the electronic devices with a respective second provisioning data set . generating at least one test application key (305a-n) in plaintext and encrypting the at least one test application key (305a-n) using a first wrapping key for generating at least one encrypted test application key (305a'-n'); encrypting the first wrapping key using the secret device master key for generating an encrypted first wrapping key ; provisioning at least one of the plurality of electronic devices with a respective first provisioning data set , wherein the respective first provisioning data set comprises the at least one test application key (305a-n) in plaintext, the at least one encrypted test application key (305a'-n') and the encrypted first wrapping key ; and testing a security function of the electronic device on the basis of at least a portion of the first provisioning data set , such as the plaintext test application key (305a-n) and the encrypted test application key (305a'-n'), for debugging the first provisioning data set in order to test and develop the provisioning of the electronic devices with a respective second provisioning data set .