mhurhangee/ep-ind-claims huggingface dataset:
Pneumatic vehicle tyre having a tread with at least one shoulder-side profile-block row with profile blocks which are separated by transverse channels extending parallel to one another and which are provided with sipes, having sipe walls, which extend in particular parallel to the transverse channels, wherein the sipes, as seen in plan view, extend over three sipe zones (5a, 5b, 5c), of which one is assigned to a shoulder-side, one is assigned to a middle, and one is assigned to a tread-inner-side, circumferentially encircling profile-block-row portion (1a, 1b, 1c) of the profile-block row, said shoulder-side circumferentially encircling profile-block-row portion being situated at least for the most part outside the ground contact area, wherein the depth of the sipes and the design of the sipe walls in each sipe zone (5a, 5b, 5c) differs from the depth of the sipes and the design of the sipe walls in the two other sipe zones (5a, 5b, 5c) in such a way that the lateral stiffness of the shoulder-side profile-block row decreases from the shoulder-side profile-block-row portion to the tread-inner-side profile-block-row portion, characterized in that the sipes in the sipe zone assigned to the tread-inner-side profile-block-row portion at least sectionally extend in an undulating manner in plan view, in the sipe zone assigned to the middle profile-block-row portion extend in a zigzag-shaped, in particular sawtooth-like, manner in plan view, and in the sipe zone assigned to the shoulder-side profile-block-row portion extend in a straight manner in plan view, wherein the sipes in the sipe zones (5a, 5b, 5c) have a greatest depth which decreases in a stepwise manner from the tread-inner-side profile-block-row portion to the shoulder-side profile-block-row portion via the middle profile-block-row portion.
A beam sampler comprising: a right angle prism, the right angle prism being defined by: an opposite surface; an adjacent surface; and a hypotenuse surface; a plano-convex lens coupled to the opposite surface of the right angle prism; a photodetector coupled to the adjacent surface of the right angle prism; and an electromagnetic radiation source, the beam sampler being characterized in that the plano-convex lens includes an absorptive coating having an aperture, and wherein, in use, a beam generated by the electromagnetic radiation source propagates through the aperture and the plano-convex lens before falling incident upon the hypotenuse surface. a right angle prism, the right angle prism being defined by: an opposite surface; an adjacent surface; and a hypotenuse surface; an opposite surface; an adjacent surface; and a hypotenuse surface; a plano-convex lens coupled to the opposite surface of the right angle prism; a photodetector coupled to the adjacent surface of the right angle prism; and an electromagnetic radiation source, the beam sampler being characterized in that the plano-convex lens includes an absorptive coating having an aperture, and wherein, in use, a beam generated by the electromagnetic radiation source propagates through the aperture and the plano-convex lens before falling incident upon the hypotenuse surface.
Method for loading or reloading a decomposition unit of a SCR or Selective Catalytic Reduction system, the SCR system being mounted on board a vehicle and comprising: - a container for the storage of an ammonia precursor; - a filler pipe in communication with the decomposition unit, wherein at least one capsule containing at least one protein component adapted to decompose the ammonia precursor is introduced through the filler pipe and is then guided through the filler pipe towards the decomposition unit where it is stored, said decomposition unit being located at least partially inside the container and/or on a wall of said container. - a container for the storage of an ammonia precursor; - a filler pipe in communication with the decomposition unit,
A system for manufacturing a customized sole member for an article of footwear providing a personalized forefoot cushioning, comprising: a computing system adapted to receive a customer-selected rating of a first level of forefoot cushioning of a first sole member of a first article of footwear (700, 1850), the first sole member being formed from a first base sole layer; a cutting device adapted to cut one or more incisions in a material for a footwear sole member; and a second base sole layer for a second sole member for a second article of footwear (1400, 1820), wherein the cutting device is adapted to cut one or more incisions in the second base sole layer based on the customer-selected rating of the first level of forefoot cushioning of the first sole member. a computing system adapted to receive a customer-selected rating of a first level of forefoot cushioning of a first sole member of a first article of footwear (700, 1850), the first sole member being formed from a first base sole layer; a cutting device adapted to cut one or more incisions in a material for a footwear sole member; and a second base sole layer for a second sole member for a second article of footwear (1400, 1820), wherein the cutting device is adapted to cut one or more incisions in the second base sole layer based on the customer-selected rating of the first level of forefoot cushioning of the first sole member.
A porous carbon sheet comprising a carbon fiber and a binding material, wherein when layers obtained by dividing the carbon sheet in a thickness direction into six equal parts under compression at 0.15 MPa within a section extending from one surface to the other surface include a layer 1, a layer 2, a layer 3, a layer 4, a layer 5 and a layer 6 in this order from the layer including one surface to the layer including the other surface, a layer having the largest filling rate under compression is the layer 2, and the filling rates of the layer 2, the layer 3, the layer 4, the layer 5 and the layer 6 under compression, when determined as described in the description on <Method for Measuring Filling Rates of Layers 1 to 6>, satisfy the relationship of: the layer 2 has the largest filling rate, and the layer 3 has the second largest filling rate, and wherein the thickness of the carbon sheet is 50 μm or more.
A method for uplink timing adjustment by a base station supporting carrier aggregation "CA", the method comprising: transmitting, to a terminal, a radio resource control message to configure a secondary cell, SCell, belonging to a timing advance group "TAG" for the CA; generating a medium access control "MAC" protocol data unit "PDU" including a MAC control element "MAC CE", wherein the MAC CE includes an identity of the TAG including the SCell and a timing advance command "TAC" associated with the TAG; and transmitting the MAC PDU to the terminal, wherein the TAG is a group of at least one cell having same uplink timing, and wherein the identity of the TAG is set to 0 if the TAG is a primary TAG "PTAG" including a primary cell "PCell". transmitting, to a terminal, a radio resource control message to configure a secondary cell, SCell, belonging to a timing advance group "TAG" for the CA; generating a medium access control "MAC" protocol data unit "PDU" including a MAC control element "MAC CE", wherein the MAC CE includes an identity of the TAG including the SCell and a timing advance command "TAC" associated with the TAG; and transmitting the MAC PDU to the terminal, wherein the TAG is a group of at least one cell having same uplink timing, and wherein the identity of the TAG is set to 0 if the TAG is a primary TAG "PTAG" including a primary cell "PCell".
A lithium cobalt composite oxide for a lithium secondary battery, the lithium cobalt composite oxide being doped with magnesium and having an atomic ratio of Mg/Co of 0.0035:1 to 0.01:1, wherein the lithium cobalt composite oxide is a compound represented by Formula 1: [Formula 1] Li 1-x Mg x Co 1-y M y O 2 wherein, in Formula 1, 0.001<x<0.01 and 0≤y<0.02; and M is titanium (Ti), vanadium, nickel (Ni), iron (Fe), niobium (Nb), molybdenum (Mo), aluminium (Al), zirconium (Zr), or manganese (Mn). 0.001<x<0.01 and 0≤y<0.02; and M is titanium (Ti), vanadium, nickel (Ni), iron (Fe), niobium (Nb), molybdenum (Mo), aluminium (Al), zirconium (Zr), or manganese (Mn).
A method for communication between femto access points, APs, comprising: generating, by a key server, KS, a key; creating, by a first femto AP with the KS, a first tunnel between the first femto AP and the KS, and downloading, by the first femto AP, the key as a first key and an access control list, ACL, from the KS through the first tunnel using a group domain of interpretation, GDOI, protocol, wherein the ACL is configured to indicate a data flow access rule between the first femto AP and a second femto AP, wherein the first key is a traffic encryption key, TEK, secured by a key encryption key, KEK; creating, by a second femto AP with the KS, a second tunnel between the second femto AP and the KS, and downloading, by the second femto AP, the key as a second key from the KS through the second tunnel; encrypting, by the first femto AP, first data using the first key to obtain encrypted first data, and sending the encrypted first data to the second femto AP according to the data flow access rule indicated by the ACL, decrypting, by the second femto AP, the encrypted first data using the second key, wherein the first femto AP and the second femto AP belong to a same GDOI group. generating, by a key server, KS, a key; creating, by a first femto AP with the KS, a first tunnel between the first femto AP and the KS, and downloading, by the first femto AP, the key as a first key and an access control list, ACL, from the KS through the first tunnel using a group domain of interpretation, GDOI, protocol, wherein the ACL is configured to indicate a data flow access rule between the first femto AP and a second femto AP, wherein the first key is a traffic encryption key, TEK, secured by a key encryption key, KEK; creating, by a second femto AP with the KS, a second tunnel between the second femto AP and the KS, and downloading, by the second femto AP, the key as a second key from the KS through the second tunnel; encrypting, by the first femto AP, first data using the first key to obtain encrypted first data, and sending the encrypted first data to the second femto AP according to the data flow access rule indicated by the ACL, decrypting, by the second femto AP, the encrypted first data using the second key, wherein the first femto AP and the second femto AP belong to a same GDOI group.
A method for calculating a location of a center of mass of an aircraft during flight, wherein the aircraft comprises: a fuselage that includes a center fuel tank; a left wing extending from the fuselage that includes a left fuel tank, wherein the left wing includes a left aileron; a right wing extending from the fuselage that includes a right fuel tank, wherein the right wing includes a right aileron; a left elevator; a right elevator; and a controller, the method comprising performing by the controller steps of: detecting positions of control surfaces (116, 118, 120, 122) on aerodynamic bodies (106, 112) of the aircraft, wherein the positions include positions of the left aileron, of the right aileron, of a control surface of the left elevator, and of a control surface of the right elevator of the aircraft; calculating aerodynamic forces of the aerodynamic bodies (106, 112) based on the detected positions of the control surfaces (116, 118, 120, 122), wherein the aerodynamic bodies (106, 112) include the left wing, right wing, left elevator, and right elevator; determining locations, relative to the aircraft, of centers of pressure of the calculated aerodynamic forces; receiving a current total mass of the aircraft; and calculating the location of the center of mass of the aircraft, based on the calculated aerodynamic forces, the determined locations, and the received current total mass. a fuselage that includes a center fuel tank; a left wing extending from the fuselage that includes a left fuel tank, wherein the left wing includes a left aileron; a right wing extending from the fuselage that includes a right fuel tank, wherein the right wing includes a right aileron; a left elevator; a right elevator; and a controller, detecting positions of control surfaces (116, 118, 120, 122) on aerodynamic bodies (106, 112) of the aircraft, wherein the positions include positions of the left aileron, of the right aileron, of a control surface of the left elevator, and of a control surface of the right elevator of the aircraft; calculating aerodynamic forces of the aerodynamic bodies (106, 112) based on the detected positions of the control surfaces (116, 118, 120, 122), wherein the aerodynamic bodies (106, 112) include the left wing, right wing, left elevator, and right elevator; determining locations, relative to the aircraft, of centers of pressure of the calculated aerodynamic forces; receiving a current total mass of the aircraft; and calculating the location of the center of mass of the aircraft, based on the calculated aerodynamic forces, the determined locations, and the received current total mass.
A computer implemented method for training an image denoising convolutional neural network, the method comprising: receiving a captured image; generating a statistical noise model based on the captured image; and training a convolutional neural network based on the captured image and the statistical model; wherein training the convolutional neural network comprises: dividing the captured image into random patches; swapping pixel values in each random patch with neighbour pixel values; and training the convolutional neural network based on the random patches of the captured image and the random patches of the captured image comprising swapped pixel values; further comprising: receiving a further captured image; updating the statistical model based on the captured image and the further captured image; determining if there is a reduction in a variance or standard deviation value of the updated statistical model compared with the variance model; and retraining the convolutional neural network based on the further captured image and the updated statistical model if it is determined that there is a reduction in a variance or standard deviation value of the updated statistical model compared with the statistical model. receiving a captured image; generating a statistical noise model based on the captured image; and training a convolutional neural network based on the captured image and the statistical model; wherein training the convolutional neural network comprises: dividing the captured image into random patches; swapping pixel values in each random patch with neighbour pixel values; and training the convolutional neural network based on the random patches of the captured image and the random patches of the captured image comprising swapped pixel values; dividing the captured image into random patches; swapping pixel values in each random patch with neighbour pixel values; and training the convolutional neural network based on the random patches of the captured image and the random patches of the captured image comprising swapped pixel values; receiving a further captured image; updating the statistical model based on the captured image and the further captured image; determining if there is a reduction in a variance or standard deviation value of the updated statistical model compared with the variance model; and retraining the convolutional neural network based on the further captured image and the updated statistical model if it is determined that there is a reduction in a variance or standard deviation value of the updated statistical model compared with the statistical model.
An antiseptic tip cap and syringe combination comprising: a syringe barrel having an access point connection for connection to an access point; and a tip cap (620, 1120) characterised by the tip cap (620, 1120) having a proximal chamber (622, 1122) and a distal cap chamber, the proximal chamber releasably receiving and engaging the access point connection of the syringe barrel, the distal cap chamber removably receiving and engaging an antiseptic cap (82, 1182) for the access point; the combination further comprising a removable cover over the distal cap chamber and the antiseptic cap within; and wherein: the distal chamber and the antiseptic cap have a matching geometry; and the antiseptic cap includes an absorbent material holding an antiseptic liquid. a syringe barrel having an access point connection for connection to an access point; and a tip cap (620, 1120) characterised by the tip cap (620, 1120) having a proximal chamber (622, 1122) and a distal cap chamber, the proximal chamber releasably receiving and engaging the access point connection of the syringe barrel, the distal cap chamber removably receiving and engaging an antiseptic cap (82, 1182) for the access point; the combination further comprising a removable cover over the distal cap chamber and the antiseptic cap within; and wherein: the distal chamber and the antiseptic cap have a matching geometry; and the antiseptic cap includes an absorbent material holding an antiseptic liquid. the distal chamber and the antiseptic cap have a matching geometry; and the antiseptic cap includes an absorbent material holding an antiseptic liquid.
A method for providing non-native function to an electronic device that includes a first wireless interface, the method comprising the steps of: - providing a companion device that comprises a second wireless interface adapted to communicate with the first wireless interface in the electronic device; - processing data in the companion device; - outputting the processed data from the companion device to the second wireless interface; and - transmitting the processed data from the second wireless interface to the first wireless interface in the electronic device, wherein the data processed in the companion device is received from a source other than the electronic device. - providing a companion device that comprises a second wireless interface adapted to communicate with the first wireless interface in the electronic device; - processing data in the companion device; - outputting the processed data from the companion device to the second wireless interface; and - transmitting the processed data from the second wireless interface to the first wireless interface in the electronic device,
Electrical energy storage cell for a motor vehicle, which has: a housing, which defines an interior, in which electrochemical components of the energy storage cell are held; and a line that runs through the interior and via which a cooling or heating medium can be conducted through the interior, wherein the electrochemical components comprise a wound construction which is formed from two electrode strips and a separator, which isolates the two electrode strips from one another, and has an outer surface, wherein the housing is a cuboid with a multiplicity of outer faces, which define the cuboid; and wherein the line enters the housing at one outer face of the multiplicity of outer faces, runs on the outer surface in the interior and exits the housing again at the outer face. a housing, which defines an interior, in which electrochemical components of the energy storage cell are held; and a line that runs through the interior and via which a cooling or heating medium can be conducted through the interior, wherein the electrochemical components comprise a wound construction which is formed from two electrode strips and a separator, which isolates the two electrode strips from one another, and has an outer surface, wherein the housing is a cuboid with a multiplicity of outer faces, which define the cuboid; and wherein the line enters the housing at one outer face of the multiplicity of outer faces, runs on the outer surface in the interior and exits the housing again at the outer face.
A method of making a modified IgG2 anti-EGFR antibody comprising: modifying a nucleotide sequence encoding the heavy chain polypeptide of an IgG2 anti-EGFR antibody such that at least one encoded amino acid is modified; introducing said nucleic acid into a host cell; and culturing said host cell such that a plurality of modified IgG2 anti-EGFR antibodies is expressed and secreted, wherein a substantial population that is at least 50% of the total population of said plurality of modified IgG2 antibodies are a single conformational isoform, wherein said modification comprises a heavy chain polypeptide modification of said antibody, and wherein said heavy chain polypeptide modification comprises a substitution of the cysteine residue at Eu position 131 of said heavy chain polypeptide with serine (C131S), and wherein said heavy chain polypeptide modification further comprises a mutation of a cysteine residue within the hinge region, and wherein said mutation of a cysteine residue within said hinge region of said heavy chain polypeptide comprises a mutation of the cysteine residue at Eu position 219 or 220 of said heavy chain polypeptide to serine (C219S or C220S), and wherein the heavy chain of said modified IgG2 anti-EGFR antibody comprises the variable region SEQ ID NO: 57. modifying a nucleotide sequence encoding the heavy chain polypeptide of an IgG2 anti-EGFR antibody such that at least one encoded amino acid is modified; introducing said nucleic acid into a host cell; and culturing said host cell such that a plurality of modified IgG2 anti-EGFR antibodies is expressed and secreted, wherein a substantial population that is at least 50% of the total population of said plurality of modified IgG2 antibodies are a single conformational isoform, wherein said modification comprises a heavy chain polypeptide modification of said antibody, and wherein said heavy chain polypeptide modification comprises a substitution of the cysteine residue at Eu position 131 of said heavy chain polypeptide with serine (C131S), and wherein said heavy chain polypeptide modification further comprises a mutation of a cysteine residue within the hinge region, and wherein said mutation of a cysteine residue within said hinge region of said heavy chain polypeptide comprises a mutation of the cysteine residue at Eu position 219 or 220 of said heavy chain polypeptide to serine (C219S or C220S), and wherein the heavy chain of said modified IgG2 anti-EGFR antibody comprises the variable region SEQ ID NO: 57.