mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing a low-alcohol or alcohol-free beverage with an alcohol content of no more than 1.2% (vol/vol) and an isoamyl acetate content of at least 0.5 ppm comprising the steps of a) providing a wort;and b) fermenting the wort with at least one Pichia kluyveri yeast strain to obtain a low-alcohol or alcohol-free beverage under sterile conditions and with Pichia kluyveri as the only species of yeast strain added. a) providing a wort;and b) fermenting the wort with at least one Pichia kluyveri yeast strain to obtain a low-alcohol or alcohol-free beverage under sterile conditions and with Pichia kluyveri as the only species of yeast strain added.
Reaction medium for detecting and/or identifying MRSA bacteria, comprising a combination of two enzymatic substrates of alpha-glucosidase and an antibiotic, against which the MRSAs are resistant, preferentially a cephalosporin, such as cefoxitin.
A method for storing table entries, comprising: acquiring a storage position of a table entry in a hierarchical binary tree that comprises a first-part binary tree and second-part binary trees, wherein nodes of the first-part binary tree point to the second-part binary trees through pointers; and inserting the table entry to the hierarchical binary tree according to the storage position; wherein the inserting of the table entry to the hierarchical binary tree according to the storage position comprises: allocating a node in the first-part binary tree and a second-part binary tree to a first table entry when inserting the first table entry to the hierarchical binary tree, wherein the allocated node in the first-part binary tree points to the allocated second-part binary tree through a pointer; and inserting table entries that need to be inserted to the corresponding second-part binary tree through the pointer when continuing to insert the table entries to the hierarchical binary tree. acquiring a storage position of a table entry in a hierarchical binary tree that comprises a first-part binary tree and second-part binary trees, wherein nodes of the first-part binary tree point to the second-part binary trees through pointers; and inserting the table entry to the hierarchical binary tree according to the storage position; wherein the inserting of the table entry to the hierarchical binary tree according to the storage position comprises: allocating a node in the first-part binary tree and a second-part binary tree to a first table entry when inserting the first table entry to the hierarchical binary tree, wherein the allocated node in the first-part binary tree points to the allocated second-part binary tree through a pointer; and inserting table entries that need to be inserted to the corresponding second-part binary tree through the pointer when continuing to insert the table entries to the hierarchical binary tree. allocating a node in the first-part binary tree and a second-part binary tree to a first table entry when inserting the first table entry to the hierarchical binary tree, wherein the allocated node in the first-part binary tree points to the allocated second-part binary tree through a pointer; and inserting table entries that need to be inserted to the corresponding second-part binary tree through the pointer when continuing to insert the table entries to the hierarchical binary tree.
An integrated circuit (100; 300) having a test operation mode and a secure mission operation mode, the integrated circuit comprising: a processing unit; a test interface through which the test operation mode is controllable; an on-chip memory which is accessible in the test operation mode and in the secure mission operation mode; and one or more protected resources (360, 364, 370) being inaccessible in the test operation mode, the integrated circuit is characterised in that the processing unit is configured, in the test operation mode, to: receive an authenticated object through said test interface; and store the received authenticated object in the on-chip memory; and wherein the processing unit is configured, upon reset into the secure mission operation mode, to execute a boot procedure to: determine that the authenticated object is available in the on-chip memory; authenticate the authenticated object; and upon successful authentication, render (503a, 503b) said one or more protected resources accessible to a debug host external to said integrated circuit. a processing unit; a test interface through which the test operation mode is controllable; an on-chip memory which is accessible in the test operation mode and in the secure mission operation mode; and one or more protected resources (360, 364, 370) being inaccessible in the test operation mode, the integrated circuit is characterised in that the processing unit is configured, in the test operation mode, to: receive an authenticated object through said test interface; and store the received authenticated object in the on-chip memory; and receive an authenticated object through said test interface; and store the received authenticated object in the on-chip memory; and wherein the processing unit is configured, upon reset into the secure mission operation mode, to execute a boot procedure to: determine that the authenticated object is available in the on-chip memory; authenticate the authenticated object; and upon successful authentication, render (503a, 503b) said one or more protected resources accessible to a debug host external to said integrated circuit. determine that the authenticated object is available in the on-chip memory; authenticate the authenticated object; and upon successful authentication, render (503a, 503b) said one or more protected resources accessible to a debug host external to said integrated circuit.
A method of decoding video data, the method comprising: obtaining, from an encoded bitstream, one or more network abstraction layer units for each view component of a plurality of view components of encoded video data, wherein each view component of the plurality of view components corresponds to a common temporal location, and wherein each NAL unit of the one or more NAL units encapsulates at least a portion of the encoded video data for the respective view components and includes as part of a NAL unit header a view order index describing a decoding order of the respective view components and does not include a view identifier; obtaining information, from a sequence level of the encoded bitstream and separate from the one or more NAL units, indicating relationships between view identifiers for views associated with the view components and the view order index describing the decoding order of the view components, wherein the information indicative of the relationship comprises a mapping table that maps view identifiers to view order index values; and decoding the encoded video data of the plurality of view components in the decoding order based on the obtained information and by determining the view identifier of the one or more NAL units using the mapping table. obtaining, from an encoded bitstream, one or more network abstraction layer units for each view component of a plurality of view components of encoded video data, wherein each view component of the plurality of view components corresponds to a common temporal location, and wherein each NAL unit of the one or more NAL units encapsulates at least a portion of the encoded video data for the respective view components and includes as part of a NAL unit header a view order index describing a decoding order of the respective view components and does not include a view identifier; obtaining information, from a sequence level of the encoded bitstream and separate from the one or more NAL units, indicating relationships between view identifiers for views associated with the view components and the view order index describing the decoding order of the view components, wherein the information indicative of the relationship comprises a mapping table that maps view identifiers to view order index values; and decoding the encoded video data of the plurality of view components in the decoding order based on the obtained information and by determining the view identifier of the one or more NAL units using the mapping table.
Injector for injecting a fluid, in particular a fuel, comprising: - a magnetic actuator for actuating a closing element which opens and closes a passage opening, - wherein the magnetic actuator comprises an armature connected to the closing element, an inner pole, and an outer magnetic circuit component, characterized in that the outer magnetic circuit component has a magnetic sleeve rolled from a material strip, wherein the rolled magnetic sleeve is of single-layer form and has a first abutting edge and a second abutting edge which bear against one another in the rolled state of the magnetic sleeve, wherein the first abutting edge has at least one projecting region and the second abutting edge has at least one recess, wherein the projecting region is arranged in form-fitting fashion in the recess in the rolled state of the magnetic sleeve. - a magnetic actuator for actuating a closing element which opens and closes a passage opening, - wherein the magnetic actuator comprises an armature connected to the closing element, an inner pole, and an outer magnetic circuit component,
An inhaler for producing an inhalable aerosol of powdered medicament, the inhaler including a mouthpiece, a piercing device for puncturing the lid of a blister containing a dose of medicament and a base, the piercing device comprising a piercing head having piercing elements depending therefrom, an aerosolising device having a chamber of substantially circular cross-section, inlet and outlet ports (4,5) at opposite ends of the chamber for the flow of drug laden air through the chamber between said ports (4,5) and, a bypass air inlet for the flow of clean air into the chamber, said bypass air inlet being arranged so that air enters the chamber through said inlet substantially tangential to the wall of the chamber and being configured so that air entering the chamber through said inlet forms a cyclone in the chamber that interacts with the drug laden air flowing between the inlet and outlet ports (4,5), characterised by the piercing device being disposed beneath the mouthpiece on the opposite side of the base and extending from or being connected to the base, the piercing head having clean air inlet flow passages spaced around a central drug laden air outlet passage, the blister piercing elements being configured to puncture the lid of said blister so that, when a patient inhales through the mouthpiece, clean air enters the blister through the air inlet flow passages and entrains the dose contained in the blister, the drug laden air then flowing out of the blister through the central drug laden air outlet passage and the chamber to the mouthpiece.
A method for generating a public key for an electronic device the method comprising: generating a public key based on a private key and a unique identifier associated with the electronic device, and generating a secondary base point for the generating of the public key by using a primary base point, wherein the secondary base point is calculated on base of the unique identifier associated with the electronic device, wherein the primary base point is a base point over a prime field or elliptic curves, characterized in that the unique identifier of the electronic device is a serial identification number, and in that the public key is calculated according to the following equation: y = g ′ x, wherein: y denotes the public key, x denote the private key, g' denote the secondary base point and is calculated according g' = g ID, wherein: ID denotes the serial identification number, and g denotes the primary base point. generating a public key based on a private key and a unique identifier associated with the electronic device, and generating a secondary base point for the generating of the public key by using a primary base point, wherein the secondary base point is calculated on base of the unique identifier associated with the electronic device, wherein the primary base point is a base point over a prime field or elliptic curves, characterized in that the unique identifier of the electronic device is a serial identification number, and in that the public key is calculated according to the following equation: y = g ′ x, wherein: y denotes the public key, x denote the private key, g' denote the secondary base point and is calculated according g' = g ID, wherein: ID denotes the serial identification number, and g denotes the primary base point. wherein: y denotes the public key, x denote the private key, g' denote the secondary base point and is calculated according g' = g ID, wherein: ID denotes the serial identification number, and g denotes the primary base point.
An electromechanical actuator comprising: an EMA housing having a distal stop that extends radially inward towards a longitudinal axis of the EMA housing; characterized by a ball nut extending axially within the EMA housing; and a ball screw extending axially within the ball nut; wherein the ball nut translates axially in a distal direction in response to a rotation by the ball screw; wherein the ball nut is halted in the axially distal translation in response to contact with the distal stop; and by a seal located radially inward of a portion of the distal stop, said seal in contact with said portion and the ball nut, the seal adapted to prevent debris from entering the EMA, wherein the seal is molded directly onto the stop. an EMA housing having a distal stop that extends radially inward towards a longitudinal axis of the EMA housing; characterized by a ball nut extending axially within the EMA housing; and a ball screw extending axially within the ball nut; wherein the ball nut translates axially in a distal direction in response to a rotation by the ball screw; wherein the ball nut is halted in the axially distal translation in response to contact with the distal stop; and by a seal located radially inward of a portion of the distal stop, said seal in contact with said portion and the ball nut, the seal adapted to prevent debris from entering the EMA, wherein the seal is molded directly onto the stop. wherein the ball nut translates axially in a distal direction in response to a rotation by the ball screw; wherein the ball nut is halted in the axially distal translation in response to contact with the distal stop; and by a seal located radially inward of a portion of the distal stop, said seal in contact with said portion and the ball nut, the seal adapted to prevent debris from entering the EMA, wherein the seal is molded directly onto the stop.
Communication device configured to communicate with a terminal through a short-distance wireless connection, the terminal comprising multiple functions, each current function of said functions being able to be executed with the aid of a function identifier specific to said current function, wherein the communication device comprises a plurality of interaction devices (102, 103), characterized in that the communication device is configured to: /a/ detect an event relating to one interaction device from among said interaction devices, said interaction device being a USB port, said event being a connection of a USB storage device to the communication device, and being associated with a function identifier; /b/ transmit a message to the terminal, comprising the function identifier and intended to execute a corresponding function of the terminal; /c/ receive, from the terminal, and via a local area network, an access request linked to said detected event, said access request being a request to access the content of said USB storage device. /a/ detect an event relating to one interaction device from among said interaction devices, said interaction device being a USB port, said event being a connection of a USB storage device to the communication device, and being associated with a function identifier; /b/ transmit a message to the terminal, comprising the function identifier and intended to execute a corresponding function of the terminal; /c/ receive, from the terminal, and via a local area network, an access request linked to said detected event, said access request being a request to access the content of said USB storage device.
Method for manufacturing of an inner lining part in a tool station (200; 300) from a semi-finished product arrangement of a support part and a decoration part (20, 30, 40, 50, 60, 70, 80), wherein the tool station (200; 300) comprises at least a pair of holding clamps (251, 252; 351, 352; 261, 262; 361, 362) which hold a capture section (AF1, AF2; AF3, AF4) of the semi-finished product arrangement, the method comprising the steps: ▪ shifting of the capture section (AF1, AF2; AF3, AF4) by means of the pair of holding clamps (251, 252; 351, 352; 261, 262; 361, 362) which lie against the same in direction to a base section (AB1, AB2; AB3, AB4) and simultaneously moving a slider (293, 294; 391) towards a connecting section (AZ1, AZ2; AZ3, AZ4), ▪ moving on the slider (293, 294; 391) so that a support part loop (V1-1, V1-2; V2-1, V2-2; V3-1, V3-2; V4) is formed in the connecting section (AZ1, AZ2; AZ3, AZ4), wherein an edge region section (31, 32; 42, 61; 42, 51, 52, 61; 42, 81) of the decoration part (20, 30, 40, 50, 60, 70, 80) is positioned in the support part loop (V1-1, V1-2; V2-1, V2-2; V3-1, V3-2; V4), ▪moving the slider (293, 294) out of the support part loop (V1-1, V1-2; V2-1, V2-2; V3-1, V3-2; V4), ▪ further moving the holding clamps (251, 252; 351, 352; 261, 262; 361, 362) which hold the capture section (AF1, AF2; AF3, AF4) in direction to the base section (AB1, AB2; AB3, AB4) so that two legs (W1, W2) of the loop (V1-1, V1-2; V2-1, V2-2; V3-1, V3-2; V4) of the support part are pressed against each other. ▪ shifting of the capture section (AF1, AF2; AF3, AF4) by means of the pair of holding clamps (251, 252; 351, 352; 261, 262; 361, 362) which lie against the same in direction to a base section (AB1, AB2; AB3, AB4) and simultaneously moving a slider (293, 294; 391) towards a connecting section (AZ1, AZ2; AZ3, AZ4), ▪ moving on the slider (293, 294; 391) so that a support part loop (V1-1, V1-2; V2-1, V2-2; V3-1, V3-2; V4) is formed in the connecting section (AZ1, AZ2; AZ3, AZ4), wherein an edge region section (31, 32; 42, 61; 42, 51, 52, 61; 42, 81) of the decoration part (20, 30, 40, 50, 60, 70, 80) is positioned in the support part loop (V1-1, V1-2; V2-1, V2-2; V3-1, V3-2; V4), ▪moving the slider (293, 294) out of the support part loop (V1-1, V1-2; V2-1, V2-2; V3-1, V3-2; V4), ▪ further moving the holding clamps (251, 252; 351, 352; 261, 262; 361, 362) which hold the capture section (AF1, AF2; AF3, AF4) in direction to the base section (AB1, AB2; AB3, AB4) so that two legs (W1, W2) of the loop (V1-1, V1-2; V2-1, V2-2; V3-1, V3-2; V4) of the support part are pressed against each other.
Method of radiography of an organ of a patient, comprising: - a first vertical scanning of said organ by a first radiation source and a first detector cooperating to make a first two dimensional image of said organ, - a second vertical scanning of said organ by a second radiation source and a second detector cooperating to make a second two dimensional image of said organ, - said first vertical scanning and said second vertical scanning being performed synchronously, - said first and second images viewing said organ of said patient according to different angles of incidence, wherein there is a vertical gap (h) between on the one hand said first source and detector and on the other hand said second source and detector, such that said first vertical scanning and said second vertical scanning are performed synchronously but with a time shift in between, so as to reduce cross-scattering between said first and second images. - a first vertical scanning of said organ by a first radiation source and a first detector cooperating to make a first two dimensional image of said organ, - a second vertical scanning of said organ by a second radiation source and a second detector cooperating to make a second two dimensional image of said organ, - said first vertical scanning and said second vertical scanning being performed synchronously, - said first and second images viewing said organ of said patient according to different angles of incidence,
Food product based on fat in the form of crystalline and non-crystalline microdomains, characterized in that said product comprises a volume fraction of from 0.1% to 4.5% of gas microbubbles having a diameter ranging from 1 μm to 100 μm.
A method for determining whether a subject is at risk of having or developing a chronic kidney disease comprising determining the expression level of the periostin gene in a biological sample obtained from said subject, wherein said CKD is a hypertensive nephropathy or a chronic allograft nephropathy.
A method for knitting a double-sided fabric embedded with a continuous linear material having a curved form by a flat bed knitting machine comprising a front needle bed, a back needle bed and a loop presser bed, the front needle bed comprising a plurality of front knitting needles (A to F), the back needle bed comprising a plurality of back knitting needles (a to g) at corresponding positions staggered from the plurality of front knitting needles (A to F), the loop presser bed disposed above the front needle bed or the back needle bed, and comprising a plurality of right-directed knitting pressing pieces (aA, bB, cC, dD, eE and fF) and a plurality of left-directed knitting pressing pieces (Fg, Ef, De, Cd, Bc and Ab) alternately arranged in gaps of the plurality of front knitting needles (A to F) and the plurality of back knitting needles (a to g), respectively, the method being characterized in that: during knitting of the double-sided fabric by the plurality of front knitting needles (A to F) or the plurality of back knitting needles (a to g), a continuous linear material is pressed by the plurality of right-directed knitting pressing pieces (aA, bB, cC, dD, eE and fF) and/or the plurality of left-directed knitting pressing pieces (Fg, Ef, De, Cd, Bc and Ab), and thus embedded into the double-sided fabric, such that the continuous linear material defines a plurality of loop groups (4A, 4B and 4C) which are formed by knitted stitches of the double-sided fabric, each of the loop groups (4A, 4B and 4C) formed by one of the front knitting needles and two of the back knitting needles at two sides of the front knitting needle in a knitting process and the front knitting needle and the two back knitting needles in a next knitting process, wherein at least two of the plurality of loops groups (4A, 4B and 4C) are formed in different knitting processes and the continuous linear material comprises at least one curved portion which extends to the direction of the needle bed, and the curved portion is formed by a level drop in the continuous linear material embedded between the knitted stitches of different courses of the double-sided fabric.