mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling a fuel injection system of an internal combustion engine, which fuel injection system has a low pressure region and a high pressure region , a high pressure fuel pump being fed a low pressure quantity from the low pressure region , which high pressure fuel pump compresses the said low pressure quantity to high pressure and conveys it into a pressure accumulator of the high pressure region , and the low pressure quantity being metered in to the high pressure fuel pump in accordance with an injection pressure to be achieved at an operating point of the internal combustion engine, the low pressure quantity being set by way of regulation of a delivered quantity of a delivery pump and a throttled quantity of a metering unit (8; 19), characterized in that a setting of the low pressure quantity is performed first of all predominantly via a change of the throttled quantity of the metering unit (8; 19), the throttled quantity of the metering unit being reduced again accordingly with an increasing adaptation of the delivered quantity of the delivery pump to the respective requirement, the throttling of the metering unit (8; 19) being reduced again into a certain defined throttling position, in order to obtain a dynamic reserve, in order for it to be possible to react to further changes of the operating point.
Glass melting furnace comprising a channel-shaped melting tank, the starting materials being introduced at an upstream end, the molten glass being recovered at the downstream end, the furnace being heated by means of burners, in which at least 65% of the combustion energy is produced by oxy-fuel combustion, the burners being distributed on the walls along the length of the furnace at a distance from the flue gas discharge points, in which the discharge point for at least 65% of the flue gases is located close to the upstream end near the openings for introducing the starting materials, the remainder of the flue gases being discharged close to the downstream part, beyond the last burners so as to maintain dynamic sealing with respect to the surrounding atmosphere, and comprising at least one heat exchange unit comprising a double heat exchange system, the flue gases in a first recuperator heating an intermediate fluid which heats the oxygen used in the furnace in secondary exchangers, the oxygen being brought to temperature which is not below 350°C and not above 650°C, each secondary exchanger preheating the oxygen supplying one or two burners.
A conductive film comprised of a base material formed of a plastic material, a film comprising modified fine cellulose having at least a carboxyl group and coated on the base material, and one type or two or more types of a conductive substance which is coated onto the film coated on the base material, wherein: the modified fine cellulose is natural cellulose having a cellulose I type crystal structure, the fiber width of the modified fine cellulose is 1 nm to 500 nm, and the amount of the carboxyl group is 1.0 mmol/g to 2.0 mmol/g, the conductive substance is selected from the group consisting of a conductive polymer and fine carbon selected from carbon nanotubes, carbon nanofibers, carbon nanoparticles, carbon nanohorns and fullerene, and wherein a haze value of the conductive film is 30% or less. the modified fine cellulose is natural cellulose having a cellulose I type crystal structure, the fiber width of the modified fine cellulose is 1 nm to 500 nm, and the amount of the carboxyl group is 1.0 mmol/g to 2.0 mmol/g, the conductive substance is selected from the group consisting of a conductive polymer and fine carbon selected from carbon nanotubes, carbon nanofibers, carbon nanoparticles, carbon nanohorns and fullerene, and wherein a haze value of the conductive film is 30% or less.
A method for monitoring passive intermodulation, PIM, using regular transmit signals and not a dedicated PIM test signal, without disrupting live traffic in a network, comprising: measuring (S40) plural transmit signals and corresponding receive signals; determining (S50), using a model describing a relation between each of the plural transmit signals and a respective passive intermodulation signal, a standardized passive intermodulation signal as one or more n th order intermodulation products for a standardized transmit signal comprising two tones each of a power of substantially 20 Watts; identifying (S60) in the model one or more n th order cross-intermodulation products resulting from three or more transmit signals having different respective carrier frequencies; and responsive to the identification, adapting (S70) the standardized two-tone passive intermodulation signal by determining an offset for producing an adapted two-tone standardized passive intermodulation signal, wherein n is an odd integer greater than two. measuring (S40) plural transmit signals and corresponding receive signals; determining (S50), using a model describing a relation between each of the plural transmit signals and a respective passive intermodulation signal, a standardized passive intermodulation signal as one or more n th order intermodulation products for a standardized transmit signal comprising two tones each of a power of substantially 20 Watts; identifying (S60) in the model one or more n th order cross-intermodulation products resulting from three or more transmit signals having different respective carrier frequencies; and responsive to the identification, adapting (S70) the standardized two-tone passive intermodulation signal by determining an offset for producing an adapted two-tone standardized passive intermodulation signal, wherein n is an odd integer greater than two.
A linear image scanner comprising a linear type imaging sensor , a scanning plane on which an object of digitization is placed, an optical system , an optical axis coinciding with a z axis, a scan line contained in a y axis and determined by the vision of the linear type imaging sensor , through the optical system , of a linear portion of the scanning plane or a surface of the object of digitization , a lighting system comprising at least two first light sources , a vision plane defined by the scan line and the optical axis and a moving plane defined by a forward direction , coinciding with a x axis, and by the optical axis , and in which each first light source is arranged symmetrically with respect to said vision plane and centered on the x axis, said light sources being independently controllable and arranged so that each light source enlighten the scan line from a different direction with a uniform light intensity and uniform incident angles of the light sources over the entire length of the scan line , the lighting system includes also at least two second light sources independently controllable, said linear image scanner is characterized in that said at least two second light sources are arranged symmetrically respect to said moving plane and centered on the Y axis and in which each second light source is made of a linear illuminator and an optical subsystem associated to the linear illuminator and capable of concentrating light beams originated at regular intervals of the linear illuminator only on corresponding discrete and contiguous portions of the scan line at regular intervals and of radiating the scan line with uniform light intensity and uniform incident angles over the entire length of the scan line so that light beams belonging to adjacent regular intervals overlap to form a continuous luminous line.
Rectangular connector comprising a connector housing that is open on two sides and has at least one cavity for a mounting adapter for mounting a contact carrier in the connector housing , and at least one mounting adapter , wherein the mounting adapter has at least one attachment means for attaching the contact carrier and a connecting means for supporting the mounting adapter in the cavity of the connector housing when mounted, characterized in that , in addition, a spring element is provided in order to fix the mounting adapter in the cavity of the connector housing when mounted, wherein the mounting adapter has at least one projection for insertion into the cavity , and the at least one cavity extends from a rear side (R) of the connector housing in the direction of a front side (V) and, as a result, defines a mounting direction for the mounting adapter .
An antibody that binds to a human Sortilin protein, wherein the antibody comprises a heavy chain variable region comprising the amino acid sequence of SEQ ID NO: 56 and a light chain variable region comprising the amino acid sequence of SEQ ID NO: 60.
Protective sleeve (1; 11; 31) for a balloon catheter, in particular for a balloon catheter with stent, which sleeve at least partially surrounds the balloon and optionally preferably also the stent, wherein an insertion aid (2; 32) for a guide wire is integrated in the distal end of the protective sleeve (1; 11; 31), characterized in that at the distal end of the insertion aid a trough-like recess is provided or molded thereon, which is open both at the top and also distally.
A salt or cocrystal of (a) -3-(3-dimethylamino-1-ethyl-2-methyl-propyl)-phenol, and (b1) phosphoric acid. (a) -3-(3-dimethylamino-1-ethyl-2-methyl-propyl)-phenol, and (b1) phosphoric acid.
A side case device that is attachable to a mobile object, comprising: a side case that is configured to be attached to a side portion of the mobile object to be swingable leftwardly and rightwardly, is configured to be detached from the side portion of the mobile object and has a concave portion (CV) that opens forwardly; a shaft member (BT3) configured to be fixable to the side portion of the mobile object to extend upwardly and downwardly; and a rotation member that is supported at the shaft member (BT3) to be rotatable about the shaft member (BT3) and has an insertion portion to be inserted into the concave portion (CV) of the side case , wherein with the insertion portion inserted into the concave portion (CV), a cross section, which is orthogonal to an axial center of the shaft member (BT3), of the concave portion (CV) and the insertion portion is defined, an opening end of the concave portion (CV) in the cross section is defined as a first position (p1), and a second position (p2) and a third position (p3) that are closer to a bottom portion of the concave portion (CV) than the first position (p1) are defined in this order, characterized in that the side case device further comprises a damper provided between the shaft member (BT3) and the rotation member , wherein the concave portion (CV) and the insertion portion are formed such that a size of a clearance between the concave portion (CV) and the insertion portion in the cross section gradually decreases from the first position (p1) to the second position (p2) and gradually increases from the second position (p2) to the third position (p3). a side case that is configured to be attached to a side portion of the mobile object to be swingable leftwardly and rightwardly, is configured to be detached from the side portion of the mobile object and has a concave portion (CV) that opens forwardly; a shaft member (BT3) configured to be fixable to the side portion of the mobile object to extend upwardly and downwardly; and a rotation member that is supported at the shaft member (BT3) to be rotatable about the shaft member (BT3) and has an insertion portion to be inserted into the concave portion (CV) of the side case , wherein with the insertion portion inserted into the concave portion (CV), a cross section, which is orthogonal to an axial center of the shaft member (BT3), of the concave portion (CV) and the insertion portion is defined, an opening end of the concave portion (CV) in the cross section is defined as a first position (p1), and a second position (p2) and a third position (p3) that are closer to a bottom portion of the concave portion (CV) than the first position (p1) are defined in this order, characterized in that the side case device further comprises a damper provided between the shaft member (BT3) and the rotation member , wherein the concave portion (CV) and the insertion portion are formed such that a size of a clearance between the concave portion (CV) and the insertion portion in the cross section gradually decreases from the first position (p1) to the second position (p2) and gradually increases from the second position (p2) to the third position (p3).
An electronic device comprising: a first camera disposed in a first direction; a second camera disposed in a second direction opposite to the first direction; a display ; and a controller configured to: identify an object from a first image obtained by the first camera, detect a change in a portion of the object, convert the detected change into image metadata, obtain a second image by composing a third image obtained by the second camera with the object, using the image metadata control the display to display the second image, wherein the image metadata comprises coordinate data including a location of the portion of the object and a change in location of the portion of the object. a first camera disposed in a first direction; a second camera disposed in a second direction opposite to the first direction; a display ; and a controller configured to: identify an object from a first image obtained by the first camera, detect a change in a portion of the object, convert the detected change into image metadata, obtain a second image by composing a third image obtained by the second camera with the object, using the image metadata control the display to display the second image, wherein the image metadata comprises coordinate data including a location of the portion of the object and a change in location of the portion of the object. identify an object from a first image obtained by the first camera, detect a change in a portion of the object, convert the detected change into image metadata, obtain a second image by composing a third image obtained by the second camera with the object, using the image metadata control the display to display the second image, wherein the image metadata comprises coordinate data including a location of the portion of the object and a change in location of the portion of the object.
An apparatus for injecting a settable compound into an in-ear device , the apparatus comprising: - a plurality of pressurizable component chambers for containing components (A, B) of a settable compound, each said component chamber being pressurizable by a pressure mechanism at a chamber pressure level (P0); - a mixing element connected to all of the component chambers via respective valves positioned therebetween, all said respective valves being simultaneously openable; - a first tube for connecting the mixing element to an in-flow canal of said device , and being characterised by a relief chamber being in contact with said pressure mechanism for being depressurizable thereby; and a second tube for connecting the relief chamber to an out-flow canal of said device ; wherein, upon simultaneous opening of each said respective valves, each of the components (A, B) of the settable compound flows toward said mixing element and said first tube from respective said pressurized component chambers , with said second tube and relief chamber allowing air entrapped into the expandable chamber of said device and excess of the settable compound to flow thereto. - a plurality of pressurizable component chambers for containing components (A, B) of a settable compound, each said component chamber being pressurizable by a pressure mechanism at a chamber pressure level (P0); - a mixing element connected to all of the component chambers via respective valves positioned therebetween, all said respective valves being simultaneously openable; - a first tube for connecting the mixing element to an in-flow canal of said device , and being characterised by a relief chamber being in contact with said pressure mechanism for being depressurizable thereby; and a second tube for connecting the relief chamber to an out-flow canal of said device ; wherein, upon simultaneous opening of each said respective valves, each of the components (A, B) of the settable compound flows toward said mixing element and said first tube from respective said pressurized component chambers , with said second tube and relief chamber allowing air entrapped into the expandable chamber of said device and excess of the settable compound to flow thereto.
A data transmission method, comprising: determining, by a first device , whether a transmission code rate used for transmitting to-be-transmitted system bits is greater than a first threshold and, if the first device determines that the transmission code rate is greater than a first threshold, the first device determines to: repeatedly transmit (S401), by the first device , first data to a second device within a first time unit set, wherein the first data is determined based on a first redundancy version and to-be-transmitted system bits, the first time unit set comprises K time units, K≥3, and K is an integer; and when a first condition is met, stop, by the first device , transmitting the first data in the M th time unit, wherein 2≤M≤K, and M is an integer, wherein the transmission code rate used by the first device for transmitting the to-be-transmitted system bits is determined based on a quantity of the to-be-transmitted system bits, a quantity of transmission resources corresponding to the to-be-transmitted system bits, and a modulation scheme and the first threshold is a code rate of channel coding corresponding to the to-be-transmitted bits. determining, by a first device , whether a transmission code rate used for transmitting to-be-transmitted system bits is greater than a first threshold and, if the first device determines that the transmission code rate is greater than a first threshold, the first device determines to: repeatedly transmit (S401), by the first device , first data to a second device within a first time unit set, wherein the first data is determined based on a first redundancy version and to-be-transmitted system bits, the first time unit set comprises K time units, K≥3, and K is an integer; and when a first condition is met, stop, by the first device , transmitting the first data in the M th time unit, wherein 2≤M≤K, and M is an integer, wherein the transmission code rate used by the first device for transmitting the to-be-transmitted system bits is determined based on a quantity of the to-be-transmitted system bits, a quantity of transmission resources corresponding to the to-be-transmitted system bits, and a modulation scheme and the first threshold is a code rate of channel coding corresponding to the to-be-transmitted bits. repeatedly transmit (S401), by the first device , first data to a second device within a first time unit set, wherein the first data is determined based on a first redundancy version and to-be-transmitted system bits, the first time unit set comprises K time units, K≥3, and K is an integer; and when a first condition is met, stop, by the first device , transmitting the first data in the M th time unit, wherein 2≤M≤K, and M is an integer, wherein the transmission code rate used by the first device for transmitting the to-be-transmitted system bits is determined based on a quantity of the to-be-transmitted system bits, a quantity of transmission resources corresponding to the to-be-transmitted system bits, and a modulation scheme and the first threshold is a code rate of channel coding corresponding to the to-be-transmitted bits.
A method for determining and/or adjusting phases of at least two electrical signals, comprising the following steps: - setting a first frequency and/or a first power level for a first signal at a first signal generator ; - setting a second frequency and/or a second power level for a second signal at a second signal generator ; - forwarding the first signal to a first splitter unit having at least two output channels ; - forwarding the second signal to a second splitter unit having at least two output channels - superposing the first signal and the second signal by means of a combiner unit , thereby obtaining a superposed signal; - determining a power parameter of the superposed signal via a power measurement unit for several different phase offsets of the first signal and/or of the second signal; and - determining and/or setting a relative phase between the first signal and the second signal based on the determined power parameters, wherein the combiner unit is connected to a first output channel of the first splitter unit and to a first output channel of the second splitter unit , wherein the combiner unit is connected to the power measurement unit , and wherein the second output channels of the first splitter unit and of the second splitter unit are configured to be connected to a device under test or a phase measurement block . - setting a first frequency and/or a first power level for a first signal at a first signal generator ; - setting a second frequency and/or a second power level for a second signal at a second signal generator ; - forwarding the first signal to a first splitter unit having at least two output channels ; - forwarding the second signal to a second splitter unit having at least two output channels - superposing the first signal and the second signal by means of a combiner unit , thereby obtaining a superposed signal; - determining a power parameter of the superposed signal via a power measurement unit for several different phase offsets of the first signal and/or of the second signal; and - determining and/or setting a relative phase between the first signal and the second signal based on the determined power parameters, wherein the combiner unit is connected to a first output channel of the first splitter unit and to a first output channel of the second splitter unit , wherein the combiner unit is connected to the power measurement unit , and wherein the second output channels of the first splitter unit and of the second splitter unit are configured to be connected to a device under test or a phase measurement block .