mhurhangee/patent-ind-claim-en huggingface dataset:
A station for the conveying and inspection of a semi-finished product of the tobacco industry, comprising: - a conveyor with a belt , preferably a suction belt, configured to hold and convey the semi-finished product along a conveying path, the conveyor comprising at least one guide channel delimited at the sides by two side walls and at the top by a belt , preferably a suction belt; - at least one electromagnetic detector defining a detection channel configured to receive slidably therein at least one portion of the semi-finished product, the electromagnetic detector comprising at least one electromagnetic sensor for detecting one or more properties of the semi-finished product in transit in the detection channel ; characterized in that the conveying and inspection station can be switched between an operating configuration, where the at least one electromagnetic detector is coupled to the conveyor in such a way that the guide channel is disposed across the electromagnetic detector to allow the electromagnetic detector to detect at least one property of the semi-finished product transported by the conveyor , and a non-operating configuration, where the at least one electromagnetic detector is uncoupled from the conveyor in such a way that the guide channel is disposed outside the electromagnetic detector . - a conveyor with a belt , preferably a suction belt, configured to hold and convey the semi-finished product along a conveying path, the conveyor comprising at least one guide channel delimited at the sides by two side walls and at the top by a belt , preferably a suction belt; - at least one electromagnetic detector defining a detection channel configured to receive slidably therein at least one portion of the semi-finished product, the electromagnetic detector comprising at least one electromagnetic sensor for detecting one or more properties of the semi-finished product in transit in the detection channel ;
A system for determining strain in a portion of industrial machinery comprising: a drive coil configured to generate a magnetic field in a target material of industrial machinery using a drive signal ; a sensing coil configured to measure a magnetostriction-based change in magnetic permeability of the target material of the industrial machinery as a sensed signal ; and noise reduction circuitry configured to: receive the drive signal; receive the sensed signal; and at least partially remove noise in the sensed signal using the drive signal to generate an output signal , wherein the noise reduction circuitry comprises a differential amplifier that is configured to perform the at least partially removing noise by at least partially cancelling out the noise in the sensed signal using the drive signal as a noise common mode signal; and a processor configured to estimate mechanical stress under which the target material is exposed based at least in part on the output signal . a drive coil configured to generate a magnetic field in a target material of industrial machinery using a drive signal ; a sensing coil configured to measure a magnetostriction-based change in magnetic permeability of the target material of the industrial machinery as a sensed signal ; and noise reduction circuitry configured to: receive the drive signal; receive the sensed signal; and at least partially remove noise in the sensed signal using the drive signal to generate an output signal , wherein the noise reduction circuitry comprises a differential amplifier that is configured to perform the at least partially removing noise by at least partially cancelling out the noise in the sensed signal using the drive signal as a noise common mode signal; and receive the drive signal; receive the sensed signal; and at least partially remove noise in the sensed signal using the drive signal to generate an output signal , wherein the noise reduction circuitry comprises a differential amplifier that is configured to perform the at least partially removing noise by at least partially cancelling out the noise in the sensed signal using the drive signal as a noise common mode signal; and a processor configured to estimate mechanical stress under which the target material is exposed based at least in part on the output signal .
An energy storage device comprising: a first electrode; a second electrode; and an electrolyte disposed between the first electrode and the second electrode, wherein at least one of the first electrode or the second electrode includes a composite including a graphene framework including an interconnected porous network of both non-holey graphene sheets and holey graphene sheets; and an electrochemically active material loaded onto the graphene framework, wherein the electrochemically active material includes nanostructures of an anode material or a cathode material, wherein the cathode material includes sulfur, phosphorus, lithium cobalt oxide, lithium manganese oxide, lithium nickel manganese cobalt oxide, lithium iron phosphate, lithium nickel cobalt aluminum oxide, lithium titanate, or lithium oxide and/or the anode material includes silicon, tin, germanium, antimony, a metal oxide, niobia, or a transition metal oxide. a first electrode; a second electrode; and an electrolyte disposed between the first electrode and the second electrode, wherein at least one of the first electrode or the second electrode includes a composite including a graphene framework including an interconnected porous network of both non-holey graphene sheets and holey graphene sheets; and an electrochemically active material loaded onto the graphene framework, wherein the electrochemically active material includes nanostructures of an anode material or a cathode material, wherein the cathode material includes sulfur, phosphorus, lithium cobalt oxide, lithium manganese oxide, lithium nickel manganese cobalt oxide, lithium iron phosphate, lithium nickel cobalt aluminum oxide, lithium titanate, or lithium oxide and/or the anode material includes silicon, tin, germanium, antimony, a metal oxide, niobia, or a transition metal oxide. a graphene framework including an interconnected porous network of both non-holey graphene sheets and holey graphene sheets; and an electrochemically active material loaded onto the graphene framework, wherein the electrochemically active material includes nanostructures of an anode material or a cathode material, wherein the cathode material includes sulfur, phosphorus, lithium cobalt oxide, lithium manganese oxide, lithium nickel manganese cobalt oxide, lithium iron phosphate, lithium nickel cobalt aluminum oxide, lithium titanate, or lithium oxide and/or the anode material includes silicon, tin, germanium, antimony, a metal oxide, niobia, or a transition metal oxide.
A method of measuring turbidity of a fluid in a household appliance for washing and rinsing goods, the method comprising the steps of: measuring (S101), by means of a turbidity sensor, turbidity of the fluid by emitting light through the fluid and detecting the amount of light passing through the fluid; measuring (S102) temperature of the turbidity sensor; determining (S103) the measured turbidity by analysing the amount of emitted light and the amount of detected light; the method further being characterized in comprising the steps of: calculating (S104), as a function of the measured temperature, a value of a drive signal to be supplied to the turbidity sensor for controlling the emitted light, the function being an equation of at least the second degree; and setting (S105) the drive signal to the calculated value, thereby controlling the amount of emitted light. measuring (S101), by means of a turbidity sensor, turbidity of the fluid by emitting light through the fluid and detecting the amount of light passing through the fluid; measuring (S102) temperature of the turbidity sensor; determining (S103) the measured turbidity by analysing the amount of emitted light and the amount of detected light; the method further being characterized in comprising the steps of: calculating (S104), as a function of the measured temperature, a value of a drive signal to be supplied to the turbidity sensor for controlling the emitted light, the function being an equation of at least the second degree; and setting (S105) the drive signal to the calculated value, thereby controlling the amount of emitted light. calculating (S104), as a function of the measured temperature, a value of a drive signal to be supplied to the turbidity sensor for controlling the emitted light, the function being an equation of at least the second degree; and setting (S105) the drive signal to the calculated value, thereby controlling the amount of emitted light.
A disconnector device comprising: an isolator connecting a first terminal and a second terminal ; a sleeve positioned around the isolator and moveable between an un-extended position prior to the isolator operating and an extended position after the isolator operates, the sleeve being configured to trap debris produced by operation of the isolator; and a housing containing the isolator and the sleeve in the un-extended position, wherein the sleeve has a first length in the un-extended position and a second length in the extended position, the second length being greater than the first length. an isolator connecting a first terminal and a second terminal ; a sleeve positioned around the isolator and moveable between an un-extended position prior to the isolator operating and an extended position after the isolator operates, the sleeve being configured to trap debris produced by operation of the isolator; and a housing containing the isolator and the sleeve in the un-extended position, wherein the sleeve has a first length in the un-extended position and a second length in the extended position, the second length being greater than the first length.
Computer-implemented method for freezing or revoking a certificate of a device, the certificate being suitable for authenticating the device, and the certificate having been generated for the device, having the method step of: - capturing (S1) device-specific data for the device, and characterized by the method steps of: - ascertaining (S2) a risk value on the basis of the device-specific data, - checking (S3) the risk value using a reference value, - generating (S4a) invalidity information for the certificate if the risk value significantly deviates from the reference value, and - outputting (S5) the invalidity information to freeze or revoke the certificate, the device-specific data comprising at least one of the following pieces of information: - a firmware version installed on the device, - time information relating to software installed on the device, - a monitored communication of the device, - a monitored communication of identical devices, - a monitored communication by devices in defined spatial surroundings of the device, - activity information relating to the device, - information about the period of use and/or the number of instances of application of the certificate used by the device, - further invalidity information pertaining to a certificate of an identical device and/or - further invalidity information pertaining to a certificate of another device in defined spatial surroundings of the device. - capturing (S1) device-specific data for the device, - ascertaining (S2) a risk value on the basis of the device-specific data, - checking (S3) the risk value using a reference value, - generating (S4a) invalidity information for the certificate if the risk value significantly deviates from the reference value, and - outputting (S5) the invalidity information to freeze or revoke the certificate, the device-specific data comprising at least one of the following pieces of information: - a firmware version installed on the device, - time information relating to software installed on the device, - a monitored communication of the device, - a monitored communication of identical devices, - a monitored communication by devices in defined spatial surroundings of the device, - activity information relating to the device, - information about the period of use and/or the number of instances of application of the certificate used by the device, - further invalidity information pertaining to a certificate of an identical device and/or - further invalidity information pertaining to a certificate of another device in defined spatial surroundings of the device.
A motor vehicle having a vehicle structure and a vehicle part that can be displaced relative to the vehicle structure with the aid of at least one drive cable that is provided with a plastics injection moulded section for joining the drive cable to the vehicle part, a load reduction means being provided that comprises at least one coupling member which allows a relative movement between the displaceable vehicle part and the drive cable in the case of an acceleration of the vehicle part relative to the vehicle structure and which interacts with a catch means during the relative movement, said catch means absorbing or discharging at least part of the kinetic energy resulting from the acceleration, said catch means comprising deformation elements that are deformed and/or destroyed by the coupling member during the relative movement between the vehicle part and the drive cable , characterised in that the deformation elements are formed by a ribbing of the catch means .
A drinking container comprising a vessel; a cap, atop said vessel; a lid; a hinge located proximate a rear of said lid and interconnecting said cap to said lid, to allow said lid to pivot on said cap between a closed and open position; a locking tab at the front of said lid, that engages with an inner surface of said cap, to retain said lid in said closed position; a first abutment surface on said cap; and a second abutment surface on said lid, wherein said first and second abutment surfaces are arranged to contact with each other as said lid is pivoted from said open position to said closed position, and wherein contact of said first and second abutment surfaces urges said lid and said tab forward as said lid is pivoted to said closed position, characterized in that said hinge comprises at least one hinge pin mounted in an oblong opening arranged in the lid to allow pivoting of said lid, and sliding of said lid on said cap to allow said locking tab to be disengaged from said inner surface of said cap. a vessel; a cap, atop said vessel; a lid; a hinge located proximate a rear of said lid and interconnecting said cap to said lid, to allow said lid to pivot on said cap between a closed and open position; a locking tab at the front of said lid, that engages with an inner surface of said cap, to retain said lid in said closed position; a first abutment surface on said cap; and a second abutment surface on said lid, wherein said first and second abutment surfaces are arranged to contact with each other as said lid is pivoted from said open position to said closed position, and wherein contact of said first and second abutment surfaces urges said lid and said tab forward as said lid is pivoted to said closed position, characterized in that said hinge comprises at least one hinge pin mounted in an oblong opening arranged in the lid to allow pivoting of said lid, and sliding of said lid on said cap to allow said locking tab to be disengaged from said inner surface of said cap.
A combination of a DNA molecule encoding an antigen and an antagonistic TIM-3 antibody for use in a method of treating and/or preventing a disease associated with cytomegalovirus (CMV), herpes, human immunodeficiency virus (HIV), human papilloma virus (HPV), hepatitis C, hepatitis B, influenza, respiratory syncytial virus (RSV), malaria or C. difficile, by increasing a CD8+ T cell immune response in a subject, the method comprising the steps of: administering to the subject a prime vaccination and a boost vaccination comprising a DNA molecule encoding an antigen selected from the group consisting of: a CMV antigen, a herpes antigen, an HIV antigen, an HPV antigen, an HCV antigen, an HBV antigen, an influenza antigen, an RSV antigen, a Plasmodium falciparum antigen and a C. difficile antigen, and subsequent to the boost vaccination, administering to the subject the TIM-3 antibody. administering to the subject a prime vaccination and a boost vaccination comprising a DNA molecule encoding an antigen selected from the group consisting of: a CMV antigen, a herpes antigen, an HIV antigen, an HPV antigen, an HCV antigen, an HBV antigen, an influenza antigen, an RSV antigen, a Plasmodium falciparum antigen and a C. difficile antigen, and subsequent to the boost vaccination, administering to the subject the TIM-3 antibody.
A vehicle-use rotating electrical machine, comprising: a stator disposed inside a casing ; a rotor rotatably supported inside the stator ; a rectifying device disposed on an outer side of the casing on one side in an axial direction and rectifying alternating current generated in the stator ; and a terminal block provided in the rectifying device and electrically connected to a stator winding of the stator , wherein the terminal block has first and second tubular portions extended from a main body portion of the terminal block and inserted individually into a plurality of casing through holes formed in the casing , the first tubular portion is inserted into the casing through hole into which a lead of the stator winding is not inserted and a sealing portion that seals the casing through hole is formed, and the second tubular portion is inserted into the casing through hole into which the lead of the stator winding is inserted, covers a periphery of the lead of the stator winding , and comprises a guide portion that guides an insertion of the lead . a stator disposed inside a casing ; a rotor rotatably supported inside the stator ; a rectifying device disposed on an outer side of the casing on one side in an axial direction and rectifying alternating current generated in the stator ; and a terminal block provided in the rectifying device and electrically connected to a stator winding of the stator , wherein the terminal block has first and second tubular portions extended from a main body portion of the terminal block and inserted individually into a plurality of casing through holes formed in the casing , the first tubular portion is inserted into the casing through hole into which a lead of the stator winding is not inserted and a sealing portion that seals the casing through hole is formed, and the second tubular portion is inserted into the casing through hole into which the lead of the stator winding is inserted, covers a periphery of the lead of the stator winding , and comprises a guide portion that guides an insertion of the lead .
Intelligent meat thermometer comprising a probe with at least three temperature sensors for temperature measurement at least in three places in meat , said probe being a stainless steel tube, and the temperature sensors are located on the inner side of the stainless steel tube and distributed along the longitudinal direction of the stainless steel tube, wherein at least one temperature sensor after insertion of the probe in the meat is on the far side of the centre of the meat opposite the point of insertion, so that the centre of the meat is located at a position between two temperature sensors , such that the centre temperature of the meat can be estimated, and further comprising a unit configured for receiving measurement data from the temperature sensors , for calculating on the basis of the received measurement data, and for displaying results of these calculations, such as a remaining cooking time , and configured for setting of parameters for use in the calculations, wherein the stainless steel tube has a material thickness of between 0.05 mm and 0.30 mm, preferably between 0.05 mm and 0.25 mm and most preferably 0.25 mm, characterised in that the probe is also designed with a distance between the temperature sensors of less than 15 mm and preferably less than 10 mm at a material thickness of 0.05 mm, and with a distance of between 15 mm and 20 mm at a material thickness of between 0.05 mm and 0.25 mm, and with a distance of more than 20 mm at a material thickness of 0.25 mm and above.
A parenteral formulation, comprising: (A) siponimod which refers to 1-{4-[ -N-{ [4-cyclohexyl-3-(trifluoromethyl)benzyl]oxy}ethanimidoyl]-2-ethylbenzyl}-3-azetidinecarboxylic acid in free form or as a pharmaceutically acceptable salt or a co-crystal thereof, (B) cyclodextrin, (C) a buffer agent and (D) a solvent. (A) siponimod which refers to 1-{4-[ -N-{ [4-cyclohexyl-3-(trifluoromethyl)benzyl]oxy}ethanimidoyl]-2-ethylbenzyl}-3-azetidinecarboxylic acid in free form or as a pharmaceutically acceptable salt or a co-crystal thereof, (B) cyclodextrin, (C) a buffer agent and (D) a solvent.
A fin Field Effect Transistor (finFET) arrangement comprising: a source region and a drain region , a gate crossing over a fin of the finFET between the source and drain regions, first and second silicide layers on the source and drain regions, respectively, and first and second contact layers on the first and second silicide layers , respectively, wherein the first and second silicide layers are separated from the gate by a same distance D1 and include respective first and second surfaces that face the gate crossing over the fin, wherein the first and second surfaces each define respective first and second areas (A1, B1) that are each defined by a lateral length (L1, L3) in a first direction (y) in which the gate crosses over the fin and a height (h) in a second direction that is orthogonal to the first direction, wherein the first and second contact layers and the first silicide layer each have a same lateral length (L1) in the first direction, and wherein the first and second surfaces are of equal height (h) in the second direction, while a lateral length (L3) of the second silicide layer is smaller than the lateral length (L1) of each of the first silicide layer, the first contact layer , and the second contact layer so that a capacitance between the first silicide layer and the gate is different from a capacitance between the second silicide layer and the gate . a source region and a drain region , a gate crossing over a fin of the finFET between the source and drain regions, first and second silicide layers on the source and drain regions, respectively, and first and second contact layers on the first and second silicide layers , respectively, wherein the first and second silicide layers are separated from the gate by a same distance D1 and include respective first and second surfaces that face the gate crossing over the fin, wherein the first and second surfaces each define respective first and second areas (A1, B1) that are each defined by a lateral length (L1, L3) in a first direction (y) in which the gate crosses over the fin and a height (h) in a second direction that is orthogonal to the first direction, wherein the first and second contact layers and the first silicide layer each have a same lateral length (L1) in the first direction, and wherein the first and second surfaces are of equal height (h) in the second direction, while a lateral length (L3) of the second silicide layer is smaller than the lateral length (L1) of each of the first silicide layer, the first contact layer , and the second contact layer so that a capacitance between the first silicide layer and the gate is different from a capacitance between the second silicide layer and the gate .