mhurhangee/ep-ind-claims huggingface dataset:
Drug delivery device, comprising: - a body adapted to retain a medicament cartridge, - a cap attachable to a distal end (2.1) of the body to cover an opening (2.4) thereof through which a drug is dispensed and to prevent access to an injection needle present in this opening (2.4), - an activation mechanism arranged within the body, wherein the cap comprises an activation feature (3.1) adapted to be inserted into an activation opening (2.2) of the body in order to actuate the activation mechanism or allow actuation thereof, characterized in that a sleeve is telescoped within the distal end (2.1) of the body, wherein the sleeve is adapted to be moved in the proximal direction relative to the body in order to: - expose the injection needle, or - actuate the drug delivery device, or - allow actuation of the activation mechanism, or - expose the injection needle and actuate the drug delivery device, or - expose the injection needle and allow actuation of the activation mechanism. - a body adapted to retain a medicament cartridge, - a cap attachable to a distal end (2.1) of the body to cover an opening (2.4) thereof through which a drug is dispensed and to prevent access to an injection needle present in this opening (2.4), - an activation mechanism arranged within the body, - expose the injection needle, or - actuate the drug delivery device, or - allow actuation of the activation mechanism, or - expose the injection needle and actuate the drug delivery device, or - expose the injection needle and allow actuation of the activation mechanism.
A MEMS transducer comprising: a flexible membrane; and at least one variable vent structure (1101; 401; 801) wherein said variable vent structure provides a flow path having a size that varies with pressure differential across the membrane; wherein said variable vent structure comprises at least one moveable portion (1101; 402; 802) which is moveable in response to a pressure differential across the moveable portion so as to vary the size of a flow path through the vent structure; wherein the at least one moveable portion comprises a portion of a first layer (1103; 101) which is able to be deflected away from the surface of the rest of the first layer; wherein said moveable portion of the first layer is connected to the rest of the first layer via a beam structure able to twist to allow said moveable portion of the first layer to be deflected away from the surface of the rest of the first layer. a flexible membrane; and at least one variable vent structure (1101; 401; 801) wherein said variable vent structure provides a flow path having a size that varies with pressure differential across the membrane; wherein said variable vent structure comprises at least one moveable portion (1101; 402; 802) which is moveable in response to a pressure differential across the moveable portion so as to vary the size of a flow path through the vent structure; wherein the at least one moveable portion comprises a portion of a first layer (1103; 101) which is able to be deflected away from the surface of the rest of the first layer; wherein said moveable portion of the first layer is connected to the rest of the first layer via a beam structure able to twist to allow said moveable portion of the first layer to be deflected away from the surface of the rest of the first layer.
A process for heating a plurality of articles using radio frequency energy, said process comprising: (a) passing RF energy through at least one RF waveguide substantially filled with liquid; (b) introducing at least a portion of said RF energy into an RF heating chamber substantially filled with liquid; and (c) heating articles conveyed through said RF heating chamber using at least a portion of said RF energy. (a) passing RF energy through at least one RF waveguide substantially filled with liquid; (b) introducing at least a portion of said RF energy into an RF heating chamber substantially filled with liquid; and (c) heating articles conveyed through said RF heating chamber using at least a portion of said RF energy.
Aqueous dispersion of hydrophilically modified polycarbodiimide resins, characterized in that the dispersion comprises a salt component that comprises at least one salt having a cation and an anion that is present in its highest deprotonation level and in this highest deprotonation level has a base strength (pK B) of ≥ 9, the dispersion has an electrical conductivity in accordance with DIN EN 27888 and measured at 20°C that is higher than that of a dispersion minus the salt component but otherwise identical, wherein, when the salt component comprises magnesium sulfate and/or calcium sulfate, at least one further anion having a base strength (pK B) of ≥ 9 is present in its highest deprotonation level in the salt component, and wherein, when the salt component comprises aluminum chloride in a content of ≥ 95 mol%, the electrical conductivity of the dispersion in accordance with DIN EN 27888 and measured at 20°C is ≤ 1000% of the conductivity of a dispersion minus the salt component but otherwise identical.
A sensor arrangement having an arrangement of light curtains (L1-L4) and having a trigger generator which cyclically generates trigger signals, each trigger signal being fed to the light curtains (L1-L4), and a measuring process being started in each light curtain (L1-L4) by a received trigger signal after a predetermined delay time, characterised in that each trigger signal is fed in parallel to the light curtains (L-L4).
Method for the configuration of a tyre pressure sensor for a vehicle, comprising the following steps: - production of a data communication connection between a mobile radio device and a tyre pressure sensor, - selection of at least one specific sensor parameter for the vehicle via a mobile radio device, - activation of the at least one selected sensor parameter in the tyre pressure senor, characterized in that the data communication connection is established as a wireless connection, on basis of at least one of the following radio standards: - WLAN - Bluetooth - production of a data communication connection between a mobile radio device and a tyre pressure sensor, - selection of at least one specific sensor parameter for the vehicle via a mobile radio device, - activation of the at least one selected sensor parameter in the tyre pressure senor, - WLAN - Bluetooth
Use of a charge-transfer complex of at least two different size metal atomic quantum clusters (AQCs), M n and M' n', of general formula: M n + M' n' -, wherein the metals, M and M', of the metal AQCs are the same or different metals, M n, is the smaller AQC which is present in its oxidized form, M n +, M' n', is the larger AQC which is present in its reduced form, M' n' -, M n + and M' n' - are bound by electrostatic interactions, n and n' are respectively the number of metal atoms of M and M', and n is smaller than n' as a marker for a security document, article or element. the metals, M and M', of the metal AQCs are the same or different metals, M n, is the smaller AQC which is present in its oxidized form, M n +, M' n', is the larger AQC which is present in its reduced form, M' n' -, M n + and M' n' - are bound by electrostatic interactions, n and n' are respectively the number of metal atoms of M and M', and
An apparatus for recovery of gas, comprising: a gas separation membrane module for performing an N number of enriching processes and separating an feed gas into a permeation gas and a recovery gas through each enriching process; and a number 2N of gas storage tanks, wherein in every enriching process up to an N th enriching process, a gas stored in an n th gas storage tank is supplied to the gas separation membrane module and separated into an n th permeation gas and an n th recovery gas, and the n th permeation gas is stored in a (n-1) th gas storage tank and the n th recovery gas is stored in a (n+1) th gas storage tank, wherein n = 1 to N; and wherein the first permeation gas of the first enriching process is not stored in a gas storage tank but emitted, wherein every enriching process having an odd ranking number up to a (2n-1) th enriching process is performed in a forward direction, and if n≥2, every enriching process having an even ranking number up to a 2n th enriching process is performed in a rearward direction, and wherein the forward direction represents a gas flow from a first end of the gas separation membrane module facing towards the gas storage tanks having an odd ranking number to a second end thereof facing towards the gas storage tanks having an even ranking number, and the rearward direction represents a direction opposite to the forward direction. a gas separation membrane module for performing an N number of enriching processes and separating an feed gas into a permeation gas and a recovery gas through each enriching process; and a number 2N of gas storage tanks, wherein in every enriching process up to an N th enriching process, a gas stored in an n th gas storage tank is supplied to the gas separation membrane module and separated into an n th permeation gas and an n th recovery gas, and the n th permeation gas is stored in a (n-1) th gas storage tank and the n th recovery gas is stored in a (n+1) th gas storage tank, wherein n = 1 to N; and wherein the first permeation gas of the first enriching process is not stored in a gas storage tank but emitted, wherein every enriching process having an odd ranking number up to a (2n-1) th enriching process is performed in a forward direction, and if n≥2, every enriching process having an even ranking number up to a 2n th enriching process is performed in a rearward direction, and wherein the forward direction represents a gas flow from a first end of the gas separation membrane module facing towards the gas storage tanks having an odd ranking number to a second end thereof facing towards the gas storage tanks having an even ranking number, and the rearward direction represents a direction opposite to the forward direction.
Lithography system, in particular for the exposure of semiconductor wafers, comprising an exposure unit mounted in a vibration-isolated manner, wherein the exposure unit comprises optics with a plurality of lenses that can be positioned, wherein, by a sensor each dedicated to a lens, the position and/or the acceleration of the lenses is detected, characterized in that the lenses are each actively vibration-isolated via one actuator which decoupled from a housing of the optics.
Method for identifying a safety marking, in which method a safety marking is used to mark objects, devices or information by attaching the safety marking in electric form to them, the method comprising: reading the safety marking into the identification device, characterized by obtaining a personal identification code from a user of an identification device; enabling the use of a personal decryption key stored in the memory of the identification device in response to the obtaining of the personal identification code; and decoding the safety marking using the personal decryption key to obtain personal information contained in the safety marking. reading the safety marking into the identification device, characterized by obtaining a personal identification code from a user of an identification device; enabling the use of a personal decryption key stored in the memory of the identification device in response to the obtaining of the personal identification code; and decoding the safety marking using the personal decryption key to obtain personal information contained in the safety marking.
Cleaning appliance, wherein in order to access same, an access authorization stored on an authorization carrier (32, 36, 37; 52, 53, 54) is required, the appliance comprising two or more authorization carriers (32, 36, 37; 52, 53, 54) with access authorizations stored thereon which are linked to different authorization profiles, and a detection unit for detecting the access authorization of an authorization carrier (32, 36, 37; 52, 53, 54), wherein a range of functions dependent on the authorization profile linked to the access authorization can be provided to an operator by the cleaning appliance, wherein each authorization carrier (32, 36, 37; 52, 53, 54) comprises an identification device (42, 43, 44; 61, 62, 63) for providing an identifier (45, 46, 47; 64, 65, 66) which is associated with the particular authorization profile of the authorization carrier (32, 36, 37; 52, 53, 54) and which is perceivable by the operator using a sensory organ, wherein identifiers (45, 46, 47; 64, 65, 66) associated with different authorization profiles are different from one another, characterized in that the cleaning appliance includes a playback device with a controllable optical display unit for providing an authorization information that is visually perceivable by the operator, which authorization information is associated with the authorization profile of an authorization carrier (32, 36, 37; 52, 53, 54) used by the operator for accessing the cleaning appliance, for a control option for the operator to determine whether the authorization profile of an authorization carrier (32, 36, 37; 52, 53, 54) being used is the authorization profile expected by the operator.
A sensor-guided automated system that is capable of cutting a large-bodied decapod crustacean into a plurality of portions, said system comprising: (i) an intake apparatus for receiving the crustacean; (ii) a sensor-guided positioning system configured for: a) determining the presence, location, orientation and size of the crustacean on the intake apparatus; b) coupling with the crustacean; and c) placing the crustacean into a holding system for retaining the crustacean in a fixed position for subsequent cutting; (iii) a sensor-guided butchering system configured for: a) determining locations on the crustacean to be cut based on a desired output of crustacean portions; and b) cutting the crustacean at the locations to produce crustacean portions; and (iv) an outlet apparatus for discharging the crustacean portions from the system for subsequent further processing or packaging. (i) an intake apparatus for receiving the crustacean; (ii) a sensor-guided positioning system configured for: a) determining the presence, location, orientation and size of the crustacean on the intake apparatus; b) coupling with the crustacean; and c) placing the crustacean into a holding system for retaining the crustacean in a fixed position for subsequent cutting; a) determining the presence, location, orientation and size of the crustacean on the intake apparatus; b) coupling with the crustacean; and c) placing the crustacean into a holding system for retaining the crustacean in a fixed position for subsequent cutting; (iii) a sensor-guided butchering system configured for: a) determining locations on the crustacean to be cut based on a desired output of crustacean portions; and b) cutting the crustacean at the locations to produce crustacean portions; and a) determining locations on the crustacean to be cut based on a desired output of crustacean portions; and b) cutting the crustacean at the locations to produce crustacean portions; and (iv) an outlet apparatus for discharging the crustacean portions from the system for subsequent further processing or packaging.
A method for continuously producing a thin glass substrate, wherein, after melting and prior to a hot forming process, the viscosity of the glass that is to be formed or has at least partially been formed is adjusted in a defined manner for the thin glass substrate to be obtained; and wherein the viscosity of the glass to be hot formed is adjusted by defined cooling prior to being delivered to a hot forming device; and wherein the glass that is to be formed or has at least partially been formed has a viscosity of Ig η /dPa·s = 3.75 to at most 4.5 immediately downstream of the throughput control component or tweel. after melting and prior to a hot forming process, the viscosity of the glass that is to be formed or has at least partially been formed is adjusted in a defined manner for the thin glass substrate to be obtained; and wherein the viscosity of the glass to be hot formed is adjusted by defined cooling prior to being delivered to a hot forming device; and wherein the glass that is to be formed or has at least partially been formed has a viscosity of Ig η /dPa·s = 3.75 to at most 4.5 immediately downstream of the throughput control component or tweel.
A method for producing a whole grain shredded food product comprising: a. admixing whole cereal grain particles with water an d pressure cooking the whole grain particles to gelatinize at least 90 percent of the starch of the whole grain particles, b. tempering the cooked, whole grain particles; c. pelletizing the tempered, cooked, whole grain particles in a pelletizer to obtain whole grain pellets, the pelletizing being under pressure and temperature conditions to provide continuous shreddability of the whole grain pellets into continuous net-like sheets, d. shredding the whole grain pellets into whole grain net-like sheets, e. laminating the whole grain net-like sheets to obtain a whole grain laminate having a thickness of 0.089 to 0.64 cm (0.035 to 0.250 inches), f. cutting the whole grain laminate into whole grain pieces, and g. baking or frying the whole grain pieces to obtain a whole grain shredded food product. a. admixing whole cereal grain particles with water an d pressure cooking the whole grain particles to gelatinize at least 90 percent of the starch of the whole grain particles, b. tempering the cooked, whole grain particles; c. pelletizing the tempered, cooked, whole grain particles in a pelletizer to obtain whole grain pellets, the pelletizing being under pressure and temperature conditions to provide continuous shreddability of the whole grain pellets into continuous net-like sheets, d. shredding the whole grain pellets into whole grain net-like sheets, e. laminating the whole grain net-like sheets to obtain a whole grain laminate having a thickness of 0.089 to 0.64 cm (0.035 to 0.250 inches), f. cutting the whole grain laminate into whole grain pieces, and g. baking or frying the whole grain pieces to obtain a whole grain shredded food product.
An implantable prosthetic valve that is radially collapsible to a collapsed configuration and radially expandable to an expanded configuration, the prosthetic valve comprising: an annular frame having an inflow end, an outflow end, and a longitudinal axis; a leaflet structure positioned within the frame and secured thereto; and a sealing element secured to the frame, the sealing element comprising: a plurality of first woven portions configured as woven strips extending circumferentially around the frame; a plurality of second woven portions configured as woven strips extending circumferentially around the frame; and a plurality of elastic, stretchable portions configured as floating yarn portions extending circumferentially around the frame; wherein the first woven portions, the second woven portions and the floating yarn portions are spaced apart from each other along the longitudinal axis of the frame; wherein the first woven portions comprise a weave pattern that is different from a weave pattern of the second woven portions. an annular frame having an inflow end, an outflow end, and a longitudinal axis; a leaflet structure positioned within the frame and secured thereto; and a sealing element secured to the frame, the sealing element comprising: a plurality of first woven portions configured as woven strips extending circumferentially around the frame; a plurality of second woven portions configured as woven strips extending circumferentially around the frame; and a plurality of elastic, stretchable portions configured as floating yarn portions extending circumferentially around the frame; wherein the first woven portions, the second woven portions and the floating yarn portions are spaced apart from each other along the longitudinal axis of the frame; wherein the first woven portions comprise a weave pattern that is different from a weave pattern of the second woven portions. a plurality of first woven portions configured as woven strips extending circumferentially around the frame; a plurality of second woven portions configured as woven strips extending circumferentially around the frame; and a plurality of elastic, stretchable portions configured as floating yarn portions extending circumferentially around the frame; wherein the first woven portions, the second woven portions and the floating yarn portions are spaced apart from each other along the longitudinal axis of the frame; wherein the first woven portions comprise a weave pattern that is different from a weave pattern of the second woven portions.
A computer-implemented method comprising: validating a third transaction that includes, in a third locking script, a first puzzle and a second puzzle which are not determinable at the time the third locking script is created, wherein: the first puzzle is included, in a first transaction, in a first locking script that encumbers, with a first condition fulfillable by a solution to the first puzzle, transfer of control of a first digital asset; the second puzzle is included, in a second transaction, in a second locking script that encumbers, with a second condition fulfillable by a solution to the second puzzle, transfer of control of a second digital asset; the first transaction and the second transaction are committed to a blockchain; the third transaction is associated with a third digital asset; and the third transaction is configured to generate a pseudorandom number based at least in part on the solution to the first puzzle and the solution to the second puzzle; generating, based at least in part on the solution to the first puzzle and the solution to the second puzzle, the pseudorandom number; and transferring control of the third digital asset based at least in part on the pseudorandom number. validating a third transaction that includes, in a third locking script, a first puzzle and a second puzzle which are not determinable at the time the third locking script is created, wherein: the first puzzle is included, in a first transaction, in a first locking script that encumbers, with a first condition fulfillable by a solution to the first puzzle, transfer of control of a first digital asset; the second puzzle is included, in a second transaction, in a second locking script that encumbers, with a second condition fulfillable by a solution to the second puzzle, transfer of control of a second digital asset; the first transaction and the second transaction are committed to a blockchain; the third transaction is associated with a third digital asset; and the third transaction is configured to generate a pseudorandom number based at least in part on the solution to the first puzzle and the solution to the second puzzle; the first puzzle is included, in a first transaction, in a first locking script that encumbers, with a first condition fulfillable by a solution to the first puzzle, transfer of control of a first digital asset; the second puzzle is included, in a second transaction, in a second locking script that encumbers, with a second condition fulfillable by a solution to the second puzzle, transfer of control of a second digital asset; the first transaction and the second transaction are committed to a blockchain; the third transaction is associated with a third digital asset; and the third transaction is configured to generate a pseudorandom number based at least in part on the solution to the first puzzle and the solution to the second puzzle; generating, based at least in part on the solution to the first puzzle and the solution to the second puzzle, the pseudorandom number; and transferring control of the third digital asset based at least in part on the pseudorandom number.