mhurhangee/patent-ind-claim-en huggingface dataset:
A sabot comprising: a front scoop , wherein the front scoop comprises a first material structure and a third material structure a main body and an obturator both comprising a second material structure which is a solid; wherein the first material structure is a lattice, wherein the third material structure is a lattice, having a different density to the lattice of the first material structure, wherein the first material structure is disposed in a first region of the front scoop and the third material structure is disposed in a second region of the front scoop, wherein the first and second regions are disposed adjacent to one another and each extend from an inner rim of the front scoop to an outer rim of the front scoop, wherein a rib is arranged to separate the first region and second region . a front scoop , wherein the front scoop comprises a first material structure and a third material structure a main body and an obturator both comprising a second material structure which is a solid; wherein the first material structure is a lattice, wherein the third material structure is a lattice, having a different density to the lattice of the first material structure,
Motor vehicle comprising a device for holding a spare wheel that is installed inside said vehicle, said device comprising a wire structure formed by a bent wire pressing on the spare wheel resting flat, at least one hinge secured to a structural element of the vehicle and locking means that are able to be secured to at least one structural element of the vehicle , said at least one hinge and said locking means being spaced apart from one another, and at least a portion of said wire being integrated into said at least one hinge that is able to make said wire structure pass reversibly from a lowered position to a raised position, and said bent wire comprising a closure element cooperating with said locking means , said wire being made of metal, characterized in that said at least one hinge is a hollow metal cylinder welded to a structural element of the vehicle, a ring made of polymer material being mounted so as to be able to slide in said cylinder, and the end of the wire being introduced into said ring.
A wireless amagnetic heating module insertable inside a chamber characterized in that it is composed of: - a preferably embossed surface or plane consisting of at least one layer of an inductive amagnetic metal alloy consisting of a first amagnetic metal or a first amagnetic metal mixture in percentages ranging from 85% to 99.9% by mass over the total alloy (% wt), and containing a second ferromagnetic or ferrimagnetic metal or a second mixture of ferromagnetic or ferrimagnetic metals in a percentage ranging from 0.1% to 15% by mass over the total alloy (% wt), and - from a dielectric surface or plane transparent to electromagnetic fields. - a preferably embossed surface or plane consisting of at least one layer of an inductive amagnetic metal alloy consisting of a first amagnetic metal or a first amagnetic metal mixture in percentages ranging from 85% to 99.9% by mass over the total alloy (% wt), and containing a second ferromagnetic or ferrimagnetic metal or a second mixture of ferromagnetic or ferrimagnetic metals in a percentage ranging from 0.1% to 15% by mass over the total alloy (% wt), and - from a dielectric surface or plane transparent to electromagnetic fields.
A method for operating an electric motor-driven kitchen appliance for preparing a material to be prepared based on a recipe, wherein the material to be prepared is prepared in a vessel of the kitchen appliance via one or a plurality of consecutive preparation steps, in particular stirring and/or heating and/or chopping, wherein a current status parameter of the material to be prepared and/or a current operating parameter of the kitchen appliance is determined, characterized in that the kitchen appliance transmits information relating to the recipe currently being used for preparation, as well as the determined status parameter and/or operating parameter to a central data storage means of a data communications network , wherein the status parameter and/or the operating parameter is compared to reference parameters for this recipe, and wherein, in the event of a deviation of the status parameter and/or operating parameter from the reference parameters, a correction suggestion is transmitted by the central data storage means and/or by members of the data communications network , wherein the reference parameters are stored in a central data storage means of the data communications network or the correction proposal is transmitted directly by a data communications device of the member.
A mower comprising: a frame ; a reel supported by the frame for rotation about a first axis (A1); and a blade sub-assembly supported by the frame for rotation about a second axis (A3) between an engaged position and a disengaged position; wherein the reel defines an outer diameter (D1) relative to the first axis (A1) and engages the blade sub-assembly at a contact location (X1) in the engaged position, the outer diameter (D1) defining a tangent (T1) at the contact location (X1), characterized in that a force (F) on the blade sub-assembly in a direction substantially parallel to the tangent (T1) is operable to produce a first torque (N1) on the blade sub-assembly in a first direction about the second axis (A3) when the blade sub-assembly is in the engaged position, and wherein the weight of the blade sub-assembly is operable to produce a second torque (N2) in a second direction about the second axis (A3) when the blade sub-assembly is in the engaged position. a frame ; a reel supported by the frame for rotation about a first axis (A1); and a blade sub-assembly supported by the frame for rotation about a second axis (A3) between an engaged position and a disengaged position; wherein the reel defines an outer diameter (D1) relative to the first axis (A1) and engages the blade sub-assembly at a contact location (X1) in the engaged position, the outer diameter (D1) defining a tangent (T1) at the contact location (X1), characterized in that a force (F) on the blade sub-assembly in a direction substantially parallel to the tangent (T1) is operable to produce a first torque (N1) on the blade sub-assembly in a first direction about the second axis (A3) when the blade sub-assembly is in the engaged position, and wherein the weight of the blade sub-assembly is operable to produce a second torque (N2) in a second direction about the second axis (A3) when the blade sub-assembly is in the engaged position.
A space launcher comprising a turbopump , an exhaust nozzle positioned downstream of the turbopump , and a heat exchanger , the turbopump , the heat exchanger and the exhaust nozzle being arranged in a fluid exhaust duct , from upstream to downstream along a direction of fluid flow in said exhaust duct , the heat exchanger being configured so as to transfer heat between a propellant circulating within the heat exchanger and the fluid flowing in the exhaust duct , characterized in that it comprises: a base positioned in the exhaust duct between the turbopump and the heat exchanger , the base being positioned at the center of the fluid flow, and comprising suction orifices made in a wall of the base configured to suction part of a fluid flow around the base . the turbopump , the heat exchanger and the exhaust nozzle being arranged in a fluid exhaust duct , from upstream to downstream along a direction of fluid flow in said exhaust duct , the heat exchanger being configured so as to transfer heat between a propellant circulating within the heat exchanger and the fluid flowing in the exhaust duct , characterized in that it comprises: a base positioned in the exhaust duct between the turbopump and the heat exchanger , the base being positioned at the center of the fluid flow, and comprising suction orifices made in a wall of the base configured to suction part of a fluid flow around the base .
An optical imaging arrangement comprising: - an optical projection unit and - a control device ; - said optical projection unit comprising a support structure and a group of optical element units adapted to transfer, in an exposure process using exposure light along an exposure light path, an image of a pattern of a mask unit onto a substrate of a substrate unit ; - said group of optical element units comprising a first optical element unit (106.6) and a plurality of second optical element units (106.1 to 106.5); - said first optical element unit (106.6) and said second optical element units (106.1 to 106.5), under a control by said control device , being actively supported by said support structure - said first optical element unit (106.6) being actively supported at a first control bandwidth; - said second optical element units (106.1 to 106.5) being actively supported at a second control bandwidth to substantially maintain a given spatial relationship of each of said second optical element units (106.1 to 106.5) with respect to said first optical element unit (106.6); characterized in that - each of said second optical element units (106.1 to 106.5) is actively aligned with respect to said first optical element unit (106.6) forming an inertial reference of said group of optical element units , - said first optical element unit (106.6) being actively supported at a low control bandwidth to provide a drift control of said first optical element unit (106.6) with respect to a metrology structure of said optical projection unit . - an optical projection unit and - a control device ; - said optical projection unit comprising a support structure and a group of optical element units adapted to transfer, in an exposure process using exposure light along an exposure light path, an image of a pattern of a mask unit onto a substrate of a substrate unit ; - said group of optical element units comprising a first optical element unit (106.6) and a plurality of second optical element units (106.1 to 106.5); - said first optical element unit (106.6) and said second optical element units (106.1 to 106.5), under a control by said control device , being actively supported by said support structure - said first optical element unit (106.6) being actively supported at a first control bandwidth; - said second optical element units (106.1 to 106.5) being actively supported at a second control bandwidth to substantially maintain a given spatial relationship of each of said second optical element units (106.1 to 106.5) with respect to said first optical element unit (106.6); characterized in that - each of said second optical element units (106.1 to 106.5) is actively aligned with respect to said first optical element unit (106.6) forming an inertial reference of said group of optical element units , - said first optical element unit (106.6) being actively supported at a low control bandwidth to provide a drift control of said first optical element unit (106.6) with respect to a metrology structure of said optical projection unit .
A non-transitory computer-readable medium encoded with instructions for executing a method of protecting a data exchange during a handshake protocol from malicious attack, the instructions, when executed on a computing device configured with at least a black zone and a plurality of other electronic components, causing the computing device to perform the steps of: receiving a client hello message from a client; transmitting, to the client, a server hello message , wherein the server hello message comprises a certificate; receiving, from the client, a pre-master secret message encrypted with a server public key; storing the pre-master secret; protecting the black zone from malicious attacks on data by isolating hardware of the black zone from the plurality of other electronic components; calculating, using the pre-master secret, a master secret in the black zone ; storing the master secret as a black key in the black zone , wherein the black key is a session key that will be used for encryption and decryption during the session, wherein if a session is suspended, the black key is encrypted in the black zone until data needs to be transmitted or received again for that session; receiving, from the client, a changed cipher specification and finished message encrypted with a session key; and transmitting, to the client, a finished message encrypted with a symmetric key to complete the handshake protocol. receiving a client hello message from a client; transmitting, to the client, a server hello message , wherein the server hello message comprises a certificate; receiving, from the client, a pre-master secret message encrypted with a server public key; storing the pre-master secret; protecting the black zone from malicious attacks on data by isolating hardware of the black zone from the plurality of other electronic components; calculating, using the pre-master secret, a master secret in the black zone ; storing the master secret as a black key in the black zone , wherein the black key is a session key that will be used for encryption and decryption during the session, wherein if a session is suspended, the black key is encrypted in the black zone until data needs to be transmitted or received again for that session; receiving, from the client, a changed cipher specification and finished message encrypted with a session key; and transmitting, to the client, a finished message encrypted with a symmetric key to complete the handshake protocol.
Device having four organic light emitting devices, consisting of: a first organic light emitting device that emits red light having a peak wavelength in the visible spectrum of 600 - 700 nm, further comprising a first emissive layer having a first emissive material, wherein the first emissive material is phosphorescent; a second organic light emitting device that emits green light having a peak wavelength in the visible spectrum of 500 - 600 nm, further comprising a second emissive layer having a second emissive material, wherein the second emissive material is phosphorescent; a third organic light emitting device that emits light blue light having a peak wavelength in the visible spectrum of 400 - 500 nm and a CIE y-coordinate less than 0.25, further comprising a third emissive layer having a third emissive material, wherein the third emissive material is phosphorescent; and a fourth organic light emitting device that emits deep blue light having a peak wavelength in the visible spectrum of 400 to 500 nm and a CIE y coordinate at least 0.02 less than that of the light blue light emitted by the third organic light emitting device, further comprising a fourth emissive layer having a fourth emissive material, wherein the fourth emissive material is a deep blue phosphorescent emissive material; wherein the peak wavelength in the visible spectrum of deep blue light emitted by the fourth organic light emitting device is at least 4 nm less than the peak wavelength in the visible spectrum of light blue light emitted by the third organic light emitting device. a first organic light emitting device that emits red light having a peak wavelength in the visible spectrum of 600 - 700 nm, further comprising a first emissive layer having a first emissive material, wherein the first emissive material is phosphorescent; a second organic light emitting device that emits green light having a peak wavelength in the visible spectrum of 500 - 600 nm, further comprising a second emissive layer having a second emissive material, wherein the second emissive material is phosphorescent; a third organic light emitting device that emits light blue light having a peak wavelength in the visible spectrum of 400 - 500 nm and a CIE y-coordinate less than 0.25, further comprising a third emissive layer having a third emissive material, wherein the third emissive material is phosphorescent; and a fourth organic light emitting device that emits deep blue light having a peak wavelength in the visible spectrum of 400 to 500 nm and a CIE y coordinate at least 0.02 less than that of the light blue light emitted by the third organic light emitting device, further comprising a fourth emissive layer having a fourth emissive material, wherein the fourth emissive material is a deep blue phosphorescent emissive material; wherein the peak wavelength in the visible spectrum of deep blue light emitted by the fourth organic light emitting device is at least 4 nm less than the peak wavelength in the visible spectrum of light blue light emitted by the third organic light emitting device.
A rotary driver comprising: a speed reducer located between a motor and a load , the reducer reducing a rotary speed of a rotary shaft at a side of the motor , the reducer transmitting the reduced rotary speed to a rotary shaft at a side of the load ; a first encoder for detecting a rotation of the rotary shaft at the side of the motor ; and a second encoder for detecting a rotation of the rotary shaft at the side of the load ; characterized in that the rotary driver further comprises: a section for detecting difference that obtains a difference (N d , θ d ) between a first detected value (N in *, θ in ) that is obtained by dividing an output (N in ) of the first encoder by a rate (M) for reducing the speed by the speed reducer and a second detected value (N out , θ OUT ) that is obtained from an output of the second encoder ; and a section for detecting tooth-skipping that detects tooth-skipping of the speed reducer based on the difference (N d , θ d ); wherein the section for detecting the tooth-skipping compares the difference (N d , θ d ) with a predetermined threshold (N T , θ); and wherein the section for detecting the tooth-skipping detects tooth-skipping of the speed reducer if the difference (N d , θ d ) is greater than the threshold (N T , 0) or if the difference (N d , θ d ) is equal to, or greater than, the threshold (N T , θ). a speed reducer located between a motor and a load , the reducer reducing a rotary speed of a rotary shaft at a side of the motor , the reducer transmitting the reduced rotary speed to a rotary shaft at a side of the load ; a first encoder for detecting a rotation of the rotary shaft at the side of the motor ; and a second encoder for detecting a rotation of the rotary shaft at the side of the load ; a section for detecting difference that obtains a difference (N d , θ d ) between a first detected value (N in *, θ in ) that is obtained by dividing an output (N in ) of the first encoder by a rate (M) for reducing the speed by the speed reducer and a second detected value (N out , θ OUT ) that is obtained from an output of the second encoder ; and a section for detecting tooth-skipping that detects tooth-skipping of the speed reducer based on the difference (N d , θ d ); wherein the section for detecting the tooth-skipping compares the difference (N d , θ d ) with a predetermined threshold (N T , θ); and wherein the section for detecting the tooth-skipping detects tooth-skipping of the speed reducer if the difference (N d , θ d ) is greater than the threshold (N T , 0) or if the difference (N d , θ d ) is equal to, or greater than, the threshold (N T , θ).
An apparatus for determining residual blood in a dialyzer comprising - a holding device configured to accommodate a dialyzer , - an image capturing device configured to capture at least one image of a dialyzer accommodated by the holding device , in particular a filter located in the dialyzer , and generate corresponding image data having a plurality of pixels, each of which assigned at least one respective intensity value, in particular a color value, and - a control device configured to determine residual blood information characterizing the presence and/or content of residual blood in the dialyzer on the basis of a statistical frequency of at least a portion of the intensity values in the at least one image. - a holding device configured to accommodate a dialyzer , - an image capturing device configured to capture at least one image of a dialyzer accommodated by the holding device , in particular a filter located in the dialyzer , and generate corresponding image data having a plurality of pixels, each of which assigned at least one respective intensity value, in particular a color value, and - a control device configured to determine residual blood information characterizing the presence and/or content of residual blood in the dialyzer on the basis of a statistical frequency of at least a portion of the intensity values in the at least one image.
A printing machine provided with a main gear and plate cylinder driving devices driving individual plate cylinders, wherein each of said plate cylinder driving devices is provided with a drive shaft driving a plate cylinder, a drive helical gear fixed to the drive shaft , and an anti-backlash helical gear which is rotatably connected to the drive shaft and is biased by at least a spring towards a direction for preventing backlash; and wherein the drive helical gear and the anti-backlash helical gear are both engaged with the main gear ; characterized in that a plate provided with plural holes in which rollers are accommodated is provided between the drive helical gear and the anti-backlash helical gear .
Packaging material sealing device , in particular a cross seam packaging material sealing device for a vertical packaging machine, comprising: - a first sealing jaw and at least a second sealing jaw ; - at least one movement unit , which comprises a first actuator and at least a second actuator for actuating the two sealing jaws along a sealing direction ; and - at least one control unit , wherein the movement unit comprises a first drive shaft , which is connected to the first actuator and allows movement of first sections of the two sealing jaws , and at least a second drive shaft , which is connected to the second actuator and allows movement of second sections of the two sealing jaws , characterized in that the movement unit comprises a further first actuator and at least a further second actuator for moving the two sealing jaws perpendicular to the sealing direction , wherein the movement unit comprises a first threaded rod connected to the further first actuator and comprises at least a second threaded rod connected to the further second actuator , wherein the two sealing jaws are movable perpendicular to the sealing direction along the two threaded rods , wherein the two threaded rods are mounted parallelly to the two drive shafts . - a first sealing jaw and at least a second sealing jaw ; - at least one movement unit , which comprises a first actuator and at least a second actuator for actuating the two sealing jaws along a sealing direction ; and - at least one control unit , wherein the movement unit comprises a first drive shaft , which is connected to the first actuator and allows movement of first sections of the two sealing jaws , and at least a second drive shaft , which is connected to the second actuator and allows movement of second sections of the two sealing jaws , characterized in that the movement unit comprises a further first actuator and at least a further second actuator for moving the two sealing jaws perpendicular to the sealing direction , wherein the movement unit comprises a first threaded rod connected to the further first actuator and comprises at least a second threaded rod connected to the further second actuator , wherein the two sealing jaws are movable perpendicular to the sealing direction along the two threaded rods , wherein the two threaded rods are mounted parallelly to the two drive shafts .
An aircraft wing component comprising a composite material, characterised in that a first portion (14; 25; 31) of the composite material comprises a first metal matrix (16; 26; 32) containing reinforcing material (17; 27; 33), and a second portion (15; 28; 34) comprises a second metal matrix (18; 29; 35) containing a plurality of hollow metal ceramic spheres (19; 30; 36, 37), the second portion being adjacent a surface of the composite material.