mhurhangee/ep-ind-claims huggingface dataset:
A commercial vehicle comprising a superstructure and a chassis, which superstructure is provided with a front surface facing forwards in the vehicle's direction of movement and adapted to being subject to a draught generated by vehicle forward movement which creates an air flow (f) through and past the vehicle, with at least one front corner section on each side of the front surface, with side sections which extend from the respective corner sections rearwards in the direction of movement of the vehicle, such that each corner section is configured to guide the air flow (f) round the corner section and along the side section in a first air flow and/or a second air flow (v), and with a space configured to have part (fa, fb, f3) of the air flow (f) pass through it in order to cool a power plant (44, 32, 35) situated in the space and associated with the chassis, characterised in that at least one redirecting means is situated in or substantially in a corner transition region between the front corner section and the side section and comprises a guide surface extending substantially in a vertical plane and having a main extent from the corner section in a direction which forms an angle (α) with an imaginary line which is substantially perpendicular to the extent of the front surface and which extends in the longitudinal direction of the vehicle, which angle (α) is between 0° and 90° but preferably between 20° and 70°, so that the redirecting means is adapted to redirecting an air flow which constitutes at least part of the air flow (f) which is intended to flow through the space, mainly in the vehicle's longitudinal direction, but which leaks from the engine space, in a direction such as not to affect the first air flow and/or the second air flow (v).
A ceramic substrate having a rectangular shape in a plan view, wherein, at a location deviating from an intersection formed by a pair of diagonal lines of the ceramic substrate, at least one convex portion that is convex toward one side or the other side in a sheet thickness direction is formed, and a value obtained by dividing a maximum projection amount (Δz) of the at least one convex portion by a length of the diagonal line of the ceramic substrate is equal to or less than 2 pm/mm, characterized in that the convex portion having the maximum projection amount (Δz) among said convex portions that are convex toward one side or the other in the sheet thickness direction is at the outer peripheral edge portions of said ceramic substrate, wherein the diagonal lines have a length of 150 mm or more and the outer peripheral edge portion is an area within 3 mm from the outer edge of the ceramic substrate. wherein, at a location deviating from an intersection formed by a pair of diagonal lines of the ceramic substrate, at least one convex portion that is convex toward one side or the other side in a sheet thickness direction is formed, and a value obtained by dividing a maximum projection amount (Δz) of the at least one convex portion by a length of the diagonal line of the ceramic substrate is equal to or less than 2 pm/mm, characterized in that the convex portion having the maximum projection amount (Δz) among said convex portions that are convex toward one side or the other in the sheet thickness direction is at the outer peripheral edge portions of said ceramic substrate, wherein the diagonal lines have a length of 150 mm or more and the outer peripheral edge portion is an area within 3 mm from the outer edge of the ceramic substrate.
A heating device having a combustion chamber for burning biomass-based combustion material, said heating device comprising: at least one outflow opening for discharging flue gases produced during the combustion of biomass from the combustion chamber; at least one flue gas exit opening for conducting flue gases produced during the combustion of biomass into a chimney or into an interposed flue gas pipe; at least one heat exchanger which is incorporated in terms of flow between the outflow opening and the flue gas exit opening and has at least one flue gas duct, for withdrawing thermal energy from the flue gases conducted through the flue gas duct and for transferring thermal energy to the air surrounding the heating device; and at least one flue gas fan for creating or accelerating a flue gas flow in the flue gas duct of the heat exchanger; at least one actuating member being formed which can be moved in an automated or automatic manner and is assigned to the flue gas duct of the heat exchanger or to the combustion chamber and is designed such that the actuating member is shifted in an automated manner if the electrical operating or supply energy of the heating device or of the flue gas fan fails or is interrupted, in such a manner that a flow path of the flue gas from the combustion chamber to the flue gas exit opening is shortened or that the flow path through the flue gas duct of the heat exchanger can be at least shortened or entirely bypassed via a bypass opening opened by the actuating member; and a combustion material supply device being formed, which comprises at least one supply duct (13, 14) for supplying free-flowing combustion material, in particular pellets or chippings, into the combustion chamber in an automated manner, characterised in that at least one supply duct (13, 14) is assigned at least one shutoff element which is designed such that it is automatically shifted if the electrical operating or supply energy of the flue gas fan or of the heating device fails or is interrupted, in such a manner that at least one of the supply ducts (13, 14) is mechanically shut off, forming a mechanical separation or a combustion-inhibiting interruption in at least one supply duct (13, 14) for free-flowing combustion material.
A method for determining the contributions of domestic dog breeds to a test domestic dog genome, comprising: (a) obtaining the identity of one or both alleles in a test domestic dog genome for each of a set of markers, wherein the set of markers comprises single nucleotide polymorphisms (SNPs); and (b) determining the contributions of domestic dog breeds to the test domestic dog genome by comparing the alleles in the test domestic dog genome to a database comprising domestic dog breed profiles, wherein each domestic dog breed profile comprises genotype information for the set of markers in the domestic dog breed, and discriminating between the contributions of two or more genetically related domestic dog breeds to the test domestic dog genome by comparing the alleles in the test domestic dog genome to a database comprising profiles of two or more genetically related domestic dog breeds selected from: (i) Belgian Sheep Dog and Belgian Tervuren; (ii) Collie and Shetland Sheep Dog; (iii) Whippet and Greyhound; (iv) Siberian Husky and Alaskan Malamute; (v) Mastiff and Bullmastiff; (vi) Greater Swiss Mountain Dog and Bernese Mountain Dog; (vii) West Highland White Terrier and Cairn Terrier; or (viii) Lhasa Apso, Shih Tzu, and Pekinese. (a) obtaining the identity of one or both alleles in a test domestic dog genome for each of a set of markers, wherein the set of markers comprises single nucleotide polymorphisms (SNPs); and (b) determining the contributions of domestic dog breeds to the test domestic dog genome by comparing the alleles in the test domestic dog genome to a database comprising domestic dog breed profiles, wherein each domestic dog breed profile comprises genotype information for the set of markers in the domestic dog breed, and discriminating between the contributions of two or more genetically related domestic dog breeds to the test domestic dog genome by comparing the alleles in the test domestic dog genome to a database comprising profiles of two or more genetically related domestic dog breeds selected from: (i) Belgian Sheep Dog and Belgian Tervuren; (ii) Collie and Shetland Sheep Dog; (iii) Whippet and Greyhound; (iv) Siberian Husky and Alaskan Malamute; (v) Mastiff and Bullmastiff; (vi) Greater Swiss Mountain Dog and Bernese Mountain Dog; (vii) West Highland White Terrier and Cairn Terrier; or (viii) Lhasa Apso, Shih Tzu, and Pekinese. (i) Belgian Sheep Dog and Belgian Tervuren; (ii) Collie and Shetland Sheep Dog; (iii) Whippet and Greyhound; (iv) Siberian Husky and Alaskan Malamute; (v) Mastiff and Bullmastiff; (vi) Greater Swiss Mountain Dog and Bernese Mountain Dog; (vii) West Highland White Terrier and Cairn Terrier; or (viii) Lhasa Apso, Shih Tzu, and Pekinese.
A specimen comprising: multiple composite material sheets (P1 to P8; Li; L1 to L8) that are laminated together and contain conductive fibers, the composite material sheets (P1 to P8; Li; L1 to L8) each being formed from a prepreg, spacing elements (F1 to F7) provided between the composite material sheets at ends of the composite material sheets (P1 to P8; Li; L1 to L8) of an end of the specimen and configured to space the ends of the composite material sheets (P1 to P8; Li; L1 to L8) from one another, the spacing elements (F1 to F7) having an insulating property, a common conductive wire connector to which a common conductive wire (Wc) allowing a current to be applied to the specimen is electrically connected at a part of the specimen where the composite material sheets are not spaced from one another, and discrete conductive wire connectors at which discrete conductive wires (W1 to W8; Wi) are configured to be electrically connected to each of the spaced composite material sheets, each discrete conductive wire (W1 to W8; Wi) being configured to connect to the end of a respective composite material sheet (P1 to P8; Li; L1 to L8). multiple composite material sheets (P1 to P8; Li; L1 to L8) that are laminated together and contain conductive fibers, the composite material sheets (P1 to P8; Li; L1 to L8) each being formed from a prepreg, spacing elements (F1 to F7) provided between the composite material sheets at ends of the composite material sheets (P1 to P8; Li; L1 to L8) of an end of the specimen and configured to space the ends of the composite material sheets (P1 to P8; Li; L1 to L8) from one another, the spacing elements (F1 to F7) having an insulating property, a common conductive wire connector to which a common conductive wire (Wc) allowing a current to be applied to the specimen is electrically connected at a part of the specimen where the composite material sheets are not spaced from one another, and discrete conductive wire connectors at which discrete conductive wires (W1 to W8; Wi) are configured to be electrically connected to each of the spaced composite material sheets, each discrete conductive wire (W1 to W8; Wi) being configured to connect to the end of a respective composite material sheet (P1 to P8; Li; L1 to L8).
A mobile robot system, comprising: a plurality of position information transmitters installed in an area to transmit signals for calculating position information; a mobile robot configured to receive the signals from the position information transmitters to calculate the position information of the position information transmitters, and to set a virtual boundary in the area based on the position information; and a terminal configured to evaluate positions of the position information transmitters by analyzing the signals received from the position information transmitters, wherein the mobile robot is configured to determine its current position by analyzing the signals received from the position information transmitters based on a reference position set within the area and to perform a predetermined operation while traveling without moving outside a traveling area formed by the virtual boundary, characterized in that the robot is further configured to store a signal reception state, in response to at least one of a signal reception state of the signals of the position information transmitters received at a predetermined point in the area, and the terminal determines whether to install a new position information transmitter based on a signal reception state of the position information transmitters. a plurality of position information transmitters installed in an area to transmit signals for calculating position information; a mobile robot configured to receive the signals from the position information transmitters to calculate the position information of the position information transmitters, and to set a virtual boundary in the area based on the position information; and a terminal configured to evaluate positions of the position information transmitters by analyzing the signals received from the position information transmitters, wherein the mobile robot is configured to determine its current position by analyzing the signals received from the position information transmitters based on a reference position set within the area and to perform a predetermined operation while traveling without moving outside a traveling area formed by the virtual boundary, characterized in that the robot is further configured to store a signal reception state, in response to at least one of a signal reception state of the signals of the position information transmitters received at a predetermined point in the area, and the terminal determines whether to install a new position information transmitter based on a signal reception state of the position information transmitters.
A hinge apparatus for a foldable display device comprising: first and second curved rack apparatuses (210a,b), each curved rack apparatus defining an arcuate surface and an arcuate set of gear teeth concentric with the arcuate surface, the radius of curvature of the arcuate set of gear teeth being non-uniform; and a gear assembly comprising: a first helical gear; a second helical gear; a third helical gear coupling the first helical and second helical gears; a first spur gear coupling the first helical gear and the arcuate set of gear teeth of the first curved rack apparatus; and a second spur gear coupling the second helical gear and the arcuate set of gear teeth of the second curved rack apparatus. first and second curved rack apparatuses (210a,b), each curved rack apparatus defining an arcuate surface and an arcuate set of gear teeth concentric with the arcuate surface, the radius of curvature of the arcuate set of gear teeth being non-uniform; and a gear assembly comprising: a first helical gear; a second helical gear; a third helical gear coupling the first helical and second helical gears; a first spur gear coupling the first helical gear and the arcuate set of gear teeth of the first curved rack apparatus; and a second spur gear coupling the second helical gear and the arcuate set of gear teeth of the second curved rack apparatus. a first helical gear; a second helical gear; a third helical gear coupling the first helical and second helical gears; a first spur gear coupling the first helical gear and the arcuate set of gear teeth of the first curved rack apparatus; and a second spur gear coupling the second helical gear and the arcuate set of gear teeth of the second curved rack apparatus.
An antibody producing cell comprising - a gene encoding an antibody having Antibody-dependent cell-mediated cytotoxicity (ADCC) activity and either: a) a vector comprising SEQ ID NO:3 encoding Cas9n nuclease, a CRISPR DNA binding domain consisting of SEQ ID NO: 11 and SEQ ID NO: 13 and a nucleotide sequence encoding tracrRNA; or b) i) a first vector comprising SEQ ID NO: 3 encoding Cas9n nuclease; and ii) a second vector comprising a CRISPR DNA binding domain consisting of SEQ ID NO: 11 and SEQ ID NO: 13 and a nucleotide sequence encoding tracrRNA. - a gene encoding an antibody having Antibody-dependent cell-mediated cytotoxicity (ADCC) activity and either: a) a vector comprising SEQ ID NO:3 encoding Cas9n nuclease, a CRISPR DNA binding domain consisting of SEQ ID NO: 11 and SEQ ID NO: 13 and a nucleotide sequence encoding tracrRNA; or b) i) a first vector comprising SEQ ID NO: 3 encoding Cas9n nuclease; and ii) a second vector comprising a CRISPR DNA binding domain consisting of SEQ ID NO: 11 and SEQ ID NO: 13 and a nucleotide sequence encoding tracrRNA. a) a vector comprising SEQ ID NO:3 encoding Cas9n nuclease, a CRISPR DNA binding domain consisting of SEQ ID NO: 11 and SEQ ID NO: 13 and a nucleotide sequence encoding tracrRNA; or b) i) a first vector comprising SEQ ID NO: 3 encoding Cas9n nuclease; and ii) a second vector comprising a CRISPR DNA binding domain consisting of SEQ ID NO: 11 and SEQ ID NO: 13 and a nucleotide sequence encoding tracrRNA.
A vehicle comprising: a braking force application unit that applies a braking force by hydraulic actuation; at least one motor (MG1, MG2, MG3) that can output a regenerative torque; an electric storage unit that can transfer electric power to and from said motor; a rotation speed detection unit (44, 45, 46) that detects a rotation speed of said motor; an input limit setting unit that sets an input limit as maximum permissible electric power in charging said electric storage unit based on a state of said electric storage unit; a braking request detection unit that detects a braking request requested by the vehicle; and a braking control unit that controls said motor and said braking force application unit so that the regenerative torque is output from said motor within a range of a rated torque of said motor based on said detected rotation speed of the motor and said set input limit, and a braking force according to said detected braking request is applied to the vehicle; characterized by a lower limit regenerative torque setting unit that sets a lower limit regenerative torque as a lower limit value of a regenerative torque output from said motor so that the absolute value thereof becomes smaller as an absolute value of said detected braking request becomes larger and an absolute value thereof becomes smaller as an absolute value of said set input limit becomes smaller; wherein the braking control unit controls said motor and said braking force application unit so that the regenerative torque is output from said motor within a range of a rated torque of said motor based on also said set lower limit regenerative torque. a braking force application unit that applies a braking force by hydraulic actuation; at least one motor (MG1, MG2, MG3) that can output a regenerative torque; an electric storage unit that can transfer electric power to and from said motor; a rotation speed detection unit (44, 45, 46) that detects a rotation speed of said motor; an input limit setting unit that sets an input limit as maximum permissible electric power in charging said electric storage unit based on a state of said electric storage unit; a braking request detection unit that detects a braking request requested by the vehicle; and a braking control unit that controls said motor and said braking force application unit so that the regenerative torque is output from said motor within a range of a rated torque of said motor based on said detected rotation speed of the motor and said set input limit, and a braking force according to said detected braking request is applied to the vehicle; a lower limit regenerative torque setting unit that sets a lower limit regenerative torque as a lower limit value of a regenerative torque output from said motor so that the absolute value thereof becomes smaller as an absolute value of said detected braking request becomes larger and an absolute value thereof becomes smaller as an absolute value of said set input limit becomes smaller; wherein
A beam transport line (100, 14) for a proton accelerator, arranged to guide the proton beam from the accelerator to a dose delivery system (10, 15), wherein the accelerator, the proton beam transport line (100, 14) and the dose delivery system are arranged to be controllable by a control system, and wherein the beam transport line (100, 14) comprises a plurality of electromagnetic elements (4,6,9), characterized in that at least one of these electromagnetic elements (4,6,9) is connected to either a 2-quadrant or a 4-quadrant power supply unit arranged to produce a current that can be varied by the control system in less than 50 milliseconds so that, when the beam energy is varied to move the beam spot along the beam direction, the beam is kept focused on a target with losses along the beam transport line (100, 14) and the dose delivery system (10, 15) not larger than 10% and variations of the transverse Full Widths at Half Maximum of the beam spot not larger than 10%.
Spacer device comprising: - a fastener intended to be rigidly connected to a first support and having an internal thread; - a spacer having an external thread, a support end and a drive end, the spacer being intended to rest on the side of its support end on a second support, arranged opposite the first support; the fastener and the spacer being interconnected at their respective threads (2c, 3c) and being able to move relative to one another in an axial direction in order to adjust the spacer device to the distance separating the two supports, the spacer device being characterized in that it comprises a drive ring which is housed in the spacer and is capable of being rotated by a tool, the drive ring comprising at least one first coupling means that is capable of engaging with a second coupling means of the spacer, forming a dog clutch system, so as to selectively couple and decouple the drive ring and the spacer. - a fastener intended to be rigidly connected to a first support and having an internal thread; - a spacer having an external thread, a support end and a drive end, the spacer being intended to rest on the side of its support end on a second support, arranged opposite the first support;
Method of controlling a drinking and tap water supply system of a building comprising a house connection which can be connected to the public supply network and various supply lines branching off therefrom and laid within the building, to which are assigned flushing lines communicating with a waste water discharge which can be connected to the public waste water network, and a motor-operated house connection check valve which can be activated via a control device, so that a drinking and tap water supply between the house connection and supply lines can be shut off via the control device, and the control device, to which at least one water sensor mounted for detecting a leak in a room of the building and/or a pressure sensor is connected, comprises a leak detection module which closes the house connection check valve on an unscheduled basis in the event of a leak detected by the water sensor and/or pressure sensor so that no water is able to flow out from the leak, characterised in that the control device comprises a timer module which enables the house connection check valve to close during specific periods on a scheduled basis and enables a flushing mode even when the house connection check valve is closed as scheduled, during which the control device is activated by the timer module on a timed basis, and the house connection check valve closed as scheduled and a motor-operated flushing valve connected to one end of the supply line and shutting the supply line off from the waste water discharge are opened by the control device.