mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a thermoplastic combination film suitable for a composite glass pane, wherein the thermoplastic combination film comprises at least one defined area, which is provided for a camera window or an HUD (head-up display) region that has a variable wedge angle, the method at least comprising the steps: - providing a first thermoplastic film, - producing a second thermoplastic film with a variable wedge angle, wherein the three-dimensional shape of the second thermoplastic film is obtained by molding on a mold, and - joining together the first thermoplastic film and the second thermoplastic film, wherein the steps of joining together the first thermoplastic film and the second thermoplastic film and of producing the second thermoplastic film are done simultaneously. - providing a first thermoplastic film, - producing a second thermoplastic film with a variable wedge angle, wherein the three-dimensional shape of the second thermoplastic film is obtained by molding on a mold, and - joining together the first thermoplastic film and the second thermoplastic film,
Synchronous cylinder, preferably for an extruder, comprising an outer cylinder, an inner cylinder installed therein and arranged concentrically therewith, a double-acting work piston provided in the inner cylinder to be displaceable and a bypass device with at least one bypass valve, wherein the work piston divides the inner cylinder into two pressure chambers and can be loaded with a hydraulic fluid from both pressure chambers, wherein the bypass device is so arranged that in a bypass setting of the bypass valve a fluid connection between the two pressure chambers is produced by way of a direct connection, preferably at least one bypass line, and in a work setting of the bypass valve no such fluid connection is present, characterised in that the bypass device comprises two bypass valves respectively provided on opposite sides of the work piston.
Method for manufacturing a dial for a timepiece, the dial comprising a relief portion which extends over the entire surface of the dial, wherein the relief portion is made as an assembly of elementary pieces (10, 11; 20, 21; 30, 31; 41, 42, 43, 44; 50, 51, 52), at least some of which have an upper surface that is inclined relative to the plane of the dial, and which are juxtaposed on a base, such that the relief portion is formed by the upper surfaces (4, 5) of the elementary pieces, the method comprising the steps consisting in: a) manufacturing semi-finished elementary pieces by machining, b) treating said upper surfaces of the elementary pieces after step a) to give the upper surfaces a defined aesthetic appearance, c) cutting said treated elementary pieces along a contour of defined geometry, d) assembling the elementary pieces obtained after step c), by juxtaposing the elementary pieces edge to edge, with gap-free contact, on the base. a) manufacturing semi-finished elementary pieces by machining, b) treating said upper surfaces of the elementary pieces after step a) to give the upper surfaces a defined aesthetic appearance, c) cutting said treated elementary pieces along a contour of defined geometry, d) assembling the elementary pieces obtained after step c), by juxtaposing the elementary pieces edge to edge, with gap-free contact, on the base.
A method for diagnosing multiple sclerosis, wherein an at least 2-fold increased amount of a DNA-replication associated (Rep) protein or fragments thereof having at least 8 contiguous amino acids in a sample from a subject as compared to an amount in a control sample; or an at least 2-fold increased amount of anti-Rep antibodies in a sample from a subject as compared to an amount in a control sample correlates with a diagnosis of MS, wherein - the Rep protein comprises (i) an amino acid sequence as depicted in SEQ ID NO:1; (ii) a fragment of SEQ ID NO:1 which is capable of binding an anti-Rep antibody specific for a protein having the amino acid sequence of SEQ ID NO 1; or (iii) an amino acid sequence having a 90% or more homology to the amino acid sequence of (i) or (ii) and is capable of binding an anti-Rep antibody specific for a protein having an amino acid sequence of SEQ ID NO:1, and - the sample is (a) a liquid sample selected from serum, plasma or cerebrospinal fluid or (b) a solid sample selected from tissue cultures or biopsy specimen. an at least 2-fold increased amount of a DNA-replication associated (Rep) protein or fragments thereof having at least 8 contiguous amino acids in a sample from a subject as compared to an amount in a control sample; or an at least 2-fold increased amount of anti-Rep antibodies in a sample from a subject as compared to an amount in a control sample - the Rep protein comprises (i) an amino acid sequence as depicted in SEQ ID NO:1; (ii) a fragment of SEQ ID NO:1 which is capable of binding an anti-Rep antibody specific for a protein having the amino acid sequence of SEQ ID NO 1; or (iii) an amino acid sequence having a 90% or more homology to the amino acid sequence of (i) or (ii) and is capable of binding an anti-Rep antibody specific for a protein having an amino acid sequence of SEQ ID NO:1, and (i) an amino acid sequence as depicted in SEQ ID NO:1; (ii) a fragment of SEQ ID NO:1 which is capable of binding an anti-Rep antibody specific for a protein having the amino acid sequence of SEQ ID NO 1; or (iii) an amino acid sequence having a 90% or more homology to the amino acid sequence of (i) or (ii) and is capable of binding an anti-Rep antibody specific for a protein having an amino acid sequence of SEQ ID NO:1, and - the sample is (a) a liquid sample selected from serum, plasma or cerebrospinal fluid or (b) a solid sample selected from tissue cultures or biopsy specimen.
A piston guiding element for providing support for a front end portion of a reciprocating percussion piston of a rock drilling machine; and wherein the element is a sleeve-like piece mountable inside a body of the rock drilling machine between the percussion piston and the body; and the element comprises a first end, second end, an outer surface and an inner surface; wherein the first end is intended to be facing towards an impact direction of the percussion piston; characterized in that the opposite second end of the element is intended to be facing towards a return direction of the percussion piston and is provided with a braking recess with a greater diameter on the inner surface, and the braking recess extending a first axial distance from the second end towards the first end; the inner surface of the element comprises a first groove which is located at a second axial distance from the braking recess; the element is provided with at least one radial opening between a bottom of the first groove and the outer surface; the inner surface comprises a first axial section between the mentioned braking recess and the first groove, and a second axial section between the first groove and the first end; the element comprises at least one separate bearing sleeve mounted inside the element and provided with the mentioned first and second axial sections (As1, As2); and wherein at least the mentioned first and second axial sections (As1, As2) comprise slide bearing material. and wherein the element is a sleeve-like piece mountable inside a body of the rock drilling machine between the percussion piston and the body; and the element comprises a first end, second end, an outer surface and an inner surface; wherein the first end is intended to be facing towards an impact direction of the percussion piston; characterized in that the opposite second end of the element is intended to be facing towards a return direction of the percussion piston and is provided with a braking recess with a greater diameter on the inner surface, and the braking recess extending a first axial distance from the second end towards the first end; the inner surface of the element comprises a first groove which is located at a second axial distance from the braking recess; the element is provided with at least one radial opening between a bottom of the first groove and the outer surface; the inner surface comprises a first axial section between the mentioned braking recess and the first groove, and a second axial section between the first groove and the first end; the element comprises at least one separate bearing sleeve mounted inside the element and provided with the mentioned first and second axial sections (As1, As2); and wherein at least the mentioned first and second axial sections (As1, As2) comprise slide bearing material.
A method comprising: for each of a plurality of transmitting network devices (102, 106) of a communication network, determining, at a first network device of the communication network, performance measurements, wherein said determining performance measurements includes determining a performance measurement for each of a plurality of communication channels between the first network device (102; 106) and the transmitting network device, wherein each of the communication channels is a combination of a network coupling of the first network device and a network coupling of the transmitting network device (102; 106); determining, at the first network device, a potential primary receiver coupling of the first network device for receiving communications from the transmitting network device (102; 106) based, at least in part, on the performance measurements associated with the plurality of communication channels; and selecting a current primary receiver coupling for the first network device based, at least in part, on the potential primary receiver couplings determined for the plurality of transmitting network devices (102, 106). for each of a plurality of transmitting network devices (102, 106) of a communication network, determining, at a first network device of the communication network, performance measurements, wherein said determining performance measurements includes determining a performance measurement for each of a plurality of communication channels between the first network device (102; 106) and the transmitting network device, wherein each of the communication channels is a combination of a network coupling of the first network device and a network coupling of the transmitting network device (102; 106); determining, at the first network device, a potential primary receiver coupling of the first network device for receiving communications from the transmitting network device (102; 106) based, at least in part, on the performance measurements associated with the plurality of communication channels; and determining, at a first network device of the communication network, performance measurements, wherein said determining performance measurements includes determining a performance measurement for each of a plurality of communication channels between the first network device (102; 106) and the transmitting network device, wherein each of the communication channels is a combination of a network coupling of the first network device and a network coupling of the transmitting network device (102; 106); determining, at the first network device, a potential primary receiver coupling of the first network device for receiving communications from the transmitting network device (102; 106) based, at least in part, on the performance measurements associated with the plurality of communication channels; and selecting a current primary receiver coupling for the first network device based, at least in part, on the potential primary receiver couplings determined for the plurality of transmitting network devices (102, 106).
A star-shaped polymer having the structure according to Formula: wherein: each R 1 independently comprises H or an acrylate polymer, each n independently is 5 to 500, for example, 10 to 400, or 15 to 300, each X is independently O, NR 4, or S, wherein R 4 comprises H or C 1-6 alkyl, R 2 comprises H, C 1-8 alkyl, or a functionalized acrylate polymer, and each R 3 independently comprises H, C 1-8 alkyl, or C 1-8 alkyl phosphate. each R 1 independently comprises H or an acrylate polymer, each n independently is 5 to 500, for example, 10 to 400, or 15 to 300, each X is independently O, NR 4, or S, wherein R 4 comprises H or C 1-6 alkyl, R 2 comprises H, C 1-8 alkyl, or a functionalized acrylate polymer, and each R 3 independently comprises H, C 1-8 alkyl, or C 1-8 alkyl phosphate.
A quantum circuit executed by a quantum computer (200; 300; 400; 600; 701, 711), the circuit comprising: a plurality of qubits (P, Q, R, S; P, Q, R 1, S 1; P+1, Q-1, R+1, S-1) corresponding to spin orbitals; a Hamiltonian circuit coupled to qubits selected from the plurality of qubits, wherein a) the Hamiltonian circuit (206, 208; 304, 306, 312, 314; 422, 452; 506, 508; 534, 536; 564, 566) includes a control-Z gate (211; 440, 470; 507, 509; 535, 537) associated with a one-body Hamiltonian coefficient H pq and coupled to one of the qubits p, q of the plurality of qubits and including CNOT gates (209A, 209B; 430, 432, 460, 462) coupling the qubits p, q, or wherein b) the Hamiltonian circuit (630; 704, 706, 708, 710; 714, 716, 718, 720; 722, 724, 726, 728, 730; 734, 736, 738, 740) includes a control-Z gate associated with a two-body Hamiltonian coefficient H pqrs, and coupled to at least one of qubits p, q, r, s of the plurality of qubits and including CNOT gates (608, 612) coupling the qubits p, q, r, s; and a Jordan-Wigner string, wherein, a) for the Hamiltonian circuit associated with the one-body Hamiltonian coefficient, the Jordan-Wigner string (202, 212; 302, 320; 420, 482; 502; 530; 560) lacks CNOT gates coupling the qubits p, q, or b) for the Hamiltonian circuit associated with the two-body Hamiltonian coefficient, the Jordan-Wigner string (602, 622; 702; 712; 722; 732; 1002) lacks CNOT gates coupling the qubits p,q,r,s. a plurality of qubits (P, Q, R, S; P, Q, R 1, S 1; P+1, Q-1, R+1, S-1) corresponding to spin orbitals; a Hamiltonian circuit coupled to qubits selected from the plurality of qubits, wherein a) the Hamiltonian circuit (206, 208; 304, 306, 312, 314; 422, 452; 506, 508; 534, 536; 564, 566) includes a control-Z gate (211; 440, 470; 507, 509; 535, 537) associated with a one-body Hamiltonian coefficient H pq and coupled to one of the qubits p, q of the plurality of qubits and including CNOT gates (209A, 209B; 430, 432, 460, 462) coupling the qubits p, q, or wherein b) the Hamiltonian circuit (630; 704, 706, 708, 710; 714, 716, 718, 720; 722, 724, 726, 728, 730; 734, 736, 738, 740) includes a control-Z gate associated with a two-body Hamiltonian coefficient H pqrs, and coupled to at least one of qubits p, q, r, s of the plurality of qubits and including CNOT gates (608, 612) coupling the qubits p, q, r, s; and a Jordan-Wigner string, wherein, a) for the Hamiltonian circuit associated with the one-body Hamiltonian coefficient, the Jordan-Wigner string (202, 212; 302, 320; 420, 482; 502; 530; 560) lacks CNOT gates coupling the qubits p, q, or b) for the Hamiltonian circuit associated with the two-body Hamiltonian coefficient, the Jordan-Wigner string (602, 622; 702; 712; 722; 732; 1002) lacks CNOT gates coupling the qubits p,q,r,s.
Method of making a cutting insert using powder metallurgical methods including using a press with a main pressing direction the insert having a noncylindrical hole perpendicular to the main pressing direction, herein referred to as a cross-hole, in a press tool setup with a die, a male core rod, a female core rod, a bottom punch, a top punch and a feed shoe comprising the following steps: - moving the bottom punch down in the die to a position below the core rods (B1, B2), - positioning the core rods (B1, B2) to their filling positions, - filling the die cavity with a desired amount of powder, - moving the bottom punch in the die to distribute the powder evenly around the core rods (B1, B2), - moving the top punch and bottom punch to a final position to compact the powder to form a compact, - retracting the top and bottom punches and possibly the core rods (B1, B2) to unload the compact and - retracting the core rods (B1, B2) to allow ejection of the compact characterised in that the powder is compacted by moving the two core rods (B1, B2) to a final position. - moving the bottom punch down in the die to a position below the core rods (B1, B2), - positioning the core rods (B1, B2) to their filling positions, - filling the die cavity with a desired amount of powder, - moving the bottom punch in the die to distribute the powder evenly around the core rods (B1, B2), - moving the top punch and bottom punch to a final position to compact the powder to form a compact, - retracting the top and bottom punches and possibly the core rods (B1, B2) to unload the compact and - retracting the core rods (B1, B2) to allow ejection of the compact characterised in that the powder is compacted by moving the two core rods (B1, B2) to a final position.
A method of tracking objects using a radar, comprising: sending a beamcode to at least one radar antenna to set a predetermined direction; generating a tracking signal pulse train using samples from a random distribution of at least one of a phase or an amplitude; transmitting, in the predetermined direction, the tracking signal pulse train from the at least one antenna within a pulse time window; receiving return signals from objects at the at least one antenna; and gathering data to track the objects using the return signals, characterized in that using samples from the random distribution further comprises: generating a first pulse train; counting a number of samples in a receive time window for the radar that are unusable due to transmitting to produce an efficiency of the first pulse train; determining a largest sidelobe in frequency space for the received signals to identify a peak sidelobe; combining the peak sidelobe and the efficiency to produce a metric; and using the metric to select a distribution to be used. sending a beamcode to at least one radar antenna to set a predetermined direction; generating a tracking signal pulse train using samples from a random distribution of at least one of a phase or an amplitude; transmitting, in the predetermined direction, the tracking signal pulse train from the at least one antenna within a pulse time window; receiving return signals from objects at the at least one antenna; and gathering data to track the objects using the return signals, generating a first pulse train; counting a number of samples in a receive time window for the radar that are unusable due to transmitting to produce an efficiency of the first pulse train; determining a largest sidelobe in frequency space for the received signals to identify a peak sidelobe; combining the peak sidelobe and the efficiency to produce a metric; and
Coin store comprising a housing and a plurality of coin tubes that are arranged in the housing so as to be exchangeable independently of one another and to be removable in an axial direction, wherein locking means for the coin tubes are provided, which are actuable between a locked position locking the coin tubes in order to prevent them from being removed from the housing and an unlocked position releasing the coin tubes for removal from the housing, wherein the locking means are each arranged between two adjacent coin tubes in the housing and in the locked position lock the adjacent coin tubes in order to prevent them from being removed from the housing, and wherein the locking means can take up the locked position only in the state of the adjacent coin tubes in which they have been inserted fully in the housing.
A semiconductor die (20, 20', 20"), comprising: a transistor device comprising a cell field and an edge termination region surrounding the cell field; a source pad arranged on the cell field; a gate pad arranged laterally adjacent the cell field and in the edge termination region; a shielding region laterally surrounding the cell field, the shielding region comprising a non-depletable doped region; a polysilicon ESD protection diode; wherein the polysilicon ESD protection diode is arranged laterally between the gate pad and the source pad and vertically above at least a portion of the shielding region, wherein the polysilicon ESD protection diode comprises at least two separate sections (33, 34) that are electrically coupled in parallel between the gate pad and the source pad, the sections (33, 34) being laterally spaced apart by a gap situated at a corner of the gate pad, characterised in that at least one section (33, 34) of the polysilicon ESD protection diode comprises a first end facing towards the gap and second end opposing the first end, and the second end further comprises a convex extension that extends away from the gate pad. a transistor device comprising a cell field and an edge termination region surrounding the cell field; a source pad arranged on the cell field; a gate pad arranged laterally adjacent the cell field and in the edge termination region; a shielding region laterally surrounding the cell field, the shielding region comprising a non-depletable doped region; a polysilicon ESD protection diode; wherein the polysilicon ESD protection diode is arranged laterally between the gate pad and the source pad and vertically above at least a portion of the shielding region, wherein the polysilicon ESD protection diode comprises at least two separate sections (33, 34) that are electrically coupled in parallel between the gate pad and the source pad, the sections (33, 34) being laterally spaced apart by a gap situated at a corner of the gate pad,