mhurhangee/ep-ind-claims huggingface dataset:
Dispersion obtainable by reacting a) in 50 to 75 parts by weight of water b) 25 to 50 parts by weight of silica particles having a BET surface area of 30 to 500 m 2 /g and c) 100 to 300 μg/m 2 BET surface area of the silica particles from b) parts by weight of aminofunctional, organosilicon compounds, the aminofunctional, organosilicon compound being a quaternary, aminofunctional, organosilicon compound which is obtainable by reacting chloropropyltriethoxysilane and tetramethylethylenediamine in the presence of a defined amount of water, specified as 0.5 to 500 mol of water per mole of silicon atoms, and at least partly removing the resulting hydrolysis alcohol from the system. a) in 50 to 75 parts by weight of water b) 25 to 50 parts by weight of silica particles having a BET surface area of 30 to 500 m 2 /g and c) 100 to 300 μg/m 2 BET surface area of the silica particles from b) parts by weight of aminofunctional, organosilicon compounds, the aminofunctional, organosilicon compound being a quaternary, aminofunctional, organosilicon compound which is obtainable by reacting chloropropyltriethoxysilane and tetramethylethylenediamine in the presence of a defined amount of water, specified as 0.5 to 500 mol of water per mole of silicon atoms, and at least partly removing the resulting hydrolysis alcohol from the system.
Box comprising: ▪ a frame delimiting an interior space for the box and comprising an opening allowing access to said interior space, ▪ a security door and ▪ a hinge (1141, 1142, 1251, 1252) mechanically connecting the security door to the frame, such that the security door can pivot about a pivot access in a free pivoting range (P PL), the free pivoting range including a closed position, in which the security door closes the opening, and an open position, in which the security door leaves the opening free, the box being characterised in that the hinge is arranged such that the security door can be mounted and removed from the frame by displacement in translation along the pivot axis, and in that it further comprises: ▪ pivot limiting means for limiting the pivoting of the security door in a reduced pivoting range (P PR), the reduced pivoting range being less extensive than the free pivoting range (P PL) and including the closed position and the open position, ▪ a protrusion joined to the security door and projecting in a direction parallel to the pivot axis, and ▪ a stop joined to the frame and projecting in a direction perpendicular to the pivot axis, the protrusion and the stop being arranged to define, within the free pivoting range (P PL), a blocked translation range (P TB), in which the protrusion is opposite the stop and limits the translational movement of the security door along the pivot axis and a free translation range (P TL), in which the protrusion is disengaged from the stop, allowing a translational movement of the security door along the pivot axis, the free translation range (P TL) being separate from the reduced pivot range (P PR). ▪ a frame delimiting an interior space for the box and comprising an opening allowing access to said interior space, ▪ a security door and ▪ a hinge (1141, 1142, 1251, 1252) mechanically connecting the security door to the frame, such that the security door can pivot about a pivot access in a free pivoting range (P PL), the free pivoting range including a closed position, in which the security door closes the opening, and an open position, in which the security door leaves the opening free, ▪ pivot limiting means for limiting the pivoting of the security door in a reduced pivoting range (P PR), the reduced pivoting range being less extensive than the free pivoting range (P PL) and including the closed position and the open position, ▪ a protrusion joined to the security door and projecting in a direction parallel to the pivot axis, and ▪ a stop joined to the frame and projecting in a direction perpendicular to the pivot axis,
Inductive position measurement device, comprising - a scale (1, 101) with at least one first graduation track extending in the measurement direction, said first graduation track having markings with a first graduation period, and a second graduation track extending parallel thereto, said second graduation track having markings with a second graduation period, the first graduation period deviating slightly from the second graduation period, - a sensing unit (2, 102) with a first receiver coil with a first period for sensing the first graduation track and generating a first periodic sensing signal corresponding to the first graduation period and with a second receiver coil with a second period for sensing the second graduation track and generating a second periodic sensing signal corresponding to the second graduation period, the first period of the first receiver coil being equal to the second period of the second receiver coil; - an evaluation unit (3, 103), configured to establish the phase angle of the first sensing signal and the phase angle of the second sensing signal and form an absolute position within a measurement region of a plurality of first and second graduation periods from these phase angles. - a scale (1, 101) with at least one first graduation track extending in the measurement direction, said first graduation track having markings with a first graduation period, and a second graduation track extending parallel thereto, said second graduation track having markings with a second graduation period, the first graduation period deviating slightly from the second graduation period, - a sensing unit (2, 102) with a first receiver coil with a first period for sensing the first graduation track and generating a first periodic sensing signal corresponding to the first graduation period and with a second receiver coil with a second period for sensing the second graduation track and generating a second periodic sensing signal corresponding to the second graduation period, the first period of the first receiver coil being equal to the second period of the second receiver coil; - an evaluation unit (3, 103), configured to establish the phase angle of the first sensing signal and the phase angle of the second sensing signal and form an absolute position within a measurement region of a plurality of first and second graduation periods from these phase angles.
A power receiver comprising: a secondary-side resonance coil including a resonance coil part configured to receive power from a primary-side resonance coil by magnetic resonance generated with the primary-side resonance coil; a capacitor inserted in series with the resonance coil part of the secondary-side resonance coil; a series circuit constituted with a first switch and a second switch, and connected in parallel with the capacitor; a first rectifier connected in parallel with the first switch, and having a first rectification direction; a second rectifier connected in parallel with the second switch, and having a second rectification direction opposite to the first rectification direction; a communication unit configured to receive a voltage waveform or a current waveform of a power supply supplying power to the primary-side resonance coil; a detector configured to detect a voltage waveform or a current waveform of a power supply supplied to the secondary-side resonance coil based on the voltage waveform or the current waveform of the power supply supplied to the primary-side resonance coil received by the communication unit; and a controller configured to adjust the voltage waveform or the current waveform detected by the detector, and a phase difference between a first signal to switch on and off the first switch and a second signal to switch on and off the second switch, so as to adjust the power to be received by the secondary-side resonance coil. a secondary-side resonance coil including a resonance coil part configured to receive power from a primary-side resonance coil by magnetic resonance generated with the primary-side resonance coil; a capacitor inserted in series with the resonance coil part of the secondary-side resonance coil; a series circuit constituted with a first switch and a second switch, and connected in parallel with the capacitor; a first rectifier connected in parallel with the first switch, and having a first rectification direction; a second rectifier connected in parallel with the second switch, and having a second rectification direction opposite to the first rectification direction; a communication unit configured to receive a voltage waveform or a current waveform of a power supply supplying power to the primary-side resonance coil; a detector configured to detect a voltage waveform or a current waveform of a power supply supplied to the secondary-side resonance coil based on the voltage waveform or the current waveform of the power supply supplied to the primary-side resonance coil received by the communication unit; and a controller configured to adjust the voltage waveform or the current waveform detected by the detector, and a phase difference between a first signal to switch on and off the first switch and a second signal to switch on and off the second switch, so as to adjust the power to be received by the secondary-side resonance coil.
A method for obtaining a temporary identifier, comprising: receiving, by a NodeB, a data frame or signaling transmitted by a Radio Network Controller, RNC, wherein the data frame or signaling carries a dedicated High-Speed Downlink Shared Channel Radio Network Temporary Identifier, H-RNTI, of a User Equipment, UE, in a CELL-FACH state; obtaining, by the NodeB, the dedicated H-RNTI from the data frame or signaling; and associating, by the NodeB, the dedicated H-RNTI with corresponding user data. receiving, by a NodeB, a data frame or signaling transmitted by a Radio Network Controller, RNC, wherein the data frame or signaling carries a dedicated High-Speed Downlink Shared Channel Radio Network Temporary Identifier, H-RNTI, of a User Equipment, UE, in a CELL-FACH state; obtaining, by the NodeB, the dedicated H-RNTI from the data frame or signaling; and associating, by the NodeB, the dedicated H-RNTI with corresponding user data.
A broadcasting method performed by a broadcasting device, being characterized in that the method comprises: acquiring and analyzing a service application broadcast request; determining a broadcast message with preset content parameters according to the service application broadcast request, the preset content parameters comprising broadcast protocol version parameter, service application parameter, role parameter characterizing broadcast role or discovery role, broadcasting device name parameter, and broadcast configuration identification parameter, content and format contained in the broadcast message are uniformly defined in advance; and broadcasting the broadcast message. acquiring and analyzing a service application broadcast request; determining a broadcast message with preset content parameters according to the service application broadcast request, the preset content parameters comprising broadcast protocol version parameter, service application parameter, role parameter characterizing broadcast role or discovery role, broadcasting device name parameter, and broadcast configuration identification parameter, content and format contained in the broadcast message are uniformly defined in advance; and broadcasting the broadcast message.
A solid herbicidal formulation comprising a glyphosate salt and a surfactant comprising at least one alkoxylated monoglyceride, at least one alkoxylated diglyceride, or a mixture of alkoxylated mono- and diglycerides wherein the concentration of glyphosate salt is from 20 to 90 wt.% acid equivalent (a.e.), and the concentration of the alkoxylated glyceride surfactant is from 5 to 40 wt.%, wherein the glyphosate salt is selected from the group consisting of ammonium glyphosate, sodium glyphosate, potassium glyphosate, and the monoethanolamine salt of glyphosate.
A measuring instrument, comprising: an arm provided with a detector at a distal end thereof; and a support for supporting the arm in a manner movable in the axial direction of the arm, wherein the arm includes a plurality of short arms (41, 42) including a proximal short arm and a distal short arm provided with the detector at a distal end of the distal short arm, a proximal end of the proximal short arm being supported by the support in a manner movable relative to the support, the distal short arm being supported by a distal end of the proximal short arm or by a distal end of one of the short arms other than the proximal short arm, the short arms other than the proximal short arm being sequentially supported by a former one of the short arms (41, 42) in a manner movable relative to the former one of the short arms (41, 42), the measuring instrument measuring a dimension of a workpiece based on the position of the detector, and characterized in that the measuring instrument has drivers for selectively and independently moving the proximal short arm and one of the short arms at least in the axial direction of the respective short arms (41, 42), the drivers being synchronous drivers that are mechanically connected and synchronously driven.
Use of a compound represented by the general formula for stabilizing 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4(2H,3H)-dione or a salt thereof; wherein, p pieces of M 1 each independently represent a hydrogen atom or an alkali metal atom, q pieces of R 1 each independently represent a hydroxy group or a sulfonic acid group represented by the general formula, m represents 0 or 1, p represents an integer of 1 to 3, q represents an integer of 0 to 4, Y represents a nitrogen atom or a CH group (a methine group), and Z represents a group represented by the general formula [Z-1], a group represented by the general formula [Z-2], or a group represented by the general formula [Z-3], wherein, M 2 represents a hydrogen atom or an alkali metal atom, wherein, r pieces of R 2 each independently represent a hydroxy group or the sulfonic acid group represented by the general formula, R 3 represents a hydrogen atom or a hydroxy group, R 4 represents a hydrogen atom or the sulfonic acid group represented by the general formula, R 5 represents a hydrogen atom, a phenylamino group represented by the formula, or a naphthylazo group represented by the general formula, n represents 0 or 1, and r represents an integer of 0 to 4, wherein, R 12 to R 14 each independently represent a hydrogen atom, a hydroxy group, or the sulfonic acid group represented by the general formula, wherein, R 6 to R 9 each independently represent a hydrogen atom, a hydroxy group, or the sulfonic acid group represented by the general formula, wherein, R 10 represents a hydrogen atom or a carboxylic acid group represented by the general formula, s pieces of R 11 each independently represent a hydroxy group or the sulfonic acid group represented by the general formula, and s represents an integer of 0 to 5, wherein, M 3 represents a hydrogen atom or an alkali metal atom.
A baggage system for carrying items, the baggage system comprising: a briefcase, a garment bag, a saddle bag strap and a single bag carrying strap, the briefcase and the garment bag each having a bottom side and a back side (104, 188), wherein the back sides have a plurality of saddle bag fasteners along the back sides and attachable to the saddle bag strap, the back sides further having at least a first carrying strap fastener (138, 140) and at least a second carrying strap fastener also provided on the back sides or on the bottom sides attachable to the single bag carrying strap; the back sides further having an elongated opening (168, 226) adjacent a top end of the back sides dimensionally compatible with the saddle bag strap, wherein the saddle bag strap may pass through the openings and extends between the briefcase and the garment bag; wherein the briefcase and the garment bag further include parallel sides (106, 190) defining a width, and wherein the single bag carrying strap is attachable to the parallel sides such that the briefcase and the garment bag may be carried separately; and wherein the single bag carrying strap has a first end (244,238), a second end (246, 240) and a middle portion, the middle portion including a hardware attachable to the briefcase and the garment bag, and wherein the first end and the second end are attachable to the carrying strap fasteners of the briefcase and the garment bag, such that the briefcase and the garment bag may be worn separately as a backpack. a briefcase, a garment bag, a saddle bag strap and a single bag carrying strap, the briefcase and the garment bag each having a bottom side and a back side (104, 188), wherein the back sides have a plurality of saddle bag fasteners along the back sides and attachable to the saddle bag strap, the back sides further having at least a first carrying strap fastener (138, 140) and at least a second carrying strap fastener also provided on the back sides or on the bottom sides attachable to the single bag carrying strap; the back sides further having an elongated opening (168, 226) adjacent a top end of the back sides dimensionally compatible with the saddle bag strap, wherein the saddle bag strap may pass through the openings and extends between the briefcase and the garment bag; wherein the briefcase and the garment bag further include parallel sides (106, 190) defining a width, and wherein the single bag carrying strap is attachable to the parallel sides such that the briefcase and the garment bag may be carried separately; and wherein the single bag carrying strap has a first end (244,238), a second end (246, 240) and a middle portion, the middle portion including a hardware attachable to the briefcase and the garment bag, and wherein the first end and the second end are attachable to the carrying strap fasteners of the briefcase and the garment bag, such that the briefcase and the garment bag may be worn separately as a backpack.
A fast chirp Phase Locked Loop, PLL, with phase preset comprising: a Voltage Controlled Oscillator, VCO, configured to generate a Frequency Modulated Continuous Waveform, FMCW,, the VCO responsive to a filtered output voltage of a filter connected to a charge pump, the charge pump responsive to a difference between a reference frequency waveform and a divided frequency waveform generated by a frequency divider configured to divide the FMCW; a digital controller connected to the frequency divider and configured to modify a division ratio of the frequency divider to generate a chirp phase and a return phase, the chirp phase including a first linear change of the FMCW from a start frequency to a stop frequency, and the return phase including a second linear change of the FMCW from the stop frequency to the start frequency, characterized by: a phase preset circuit connected to the digital controller and the filter, the phase preset circuit supplying a phase preset current during a start frequency time preceding the chirp phase, the phase preset current proportional to a VCO gain of the VCO and inversely proportional to a chirp current during the chirp phase. a Voltage Controlled Oscillator, VCO, configured to generate a Frequency Modulated Continuous Waveform, FMCW,, the VCO responsive to a filtered output voltage of a filter connected to a charge pump, the charge pump responsive to a difference between a reference frequency waveform and a divided frequency waveform generated by a frequency divider configured to divide the FMCW; a digital controller connected to the frequency divider and configured to modify a division ratio of the frequency divider to generate a chirp phase and a return phase, the chirp phase including a first linear change of the FMCW from a start frequency to a stop frequency, and the return phase including a second linear change of the FMCW from the stop frequency to the start frequency, characterized by: a phase preset circuit connected to the digital controller and the filter, the phase preset circuit supplying a phase preset current during a start frequency time preceding the chirp phase, the phase preset current proportional to a VCO gain of the VCO and inversely proportional to a chirp current during the chirp phase.
A method for treating an optical lens, comprising the following steps: - providing an optical lens coated on at least one of the main surfaces thereof with a hydrophobic and/or oleophobic outer coating; - forming a temporary coating of polymeric nature onto said main surface of the lens so as to cover at least partially the hydrophobic and/or oleophobic coating, the temporary coating being formed by depositing onto said main surface of the lens a liquid coating composition, and then curing the liquid composition; - recovering the optical lens comprising onto at least one of the main surfaces thereof a hydrophobic and/or oleophobic outer coating and, in direct contact with said hydrophobic and/or oleophobic coating, a temporary polymeric coating adhering to the surface of the coated lens, characterized in that, prior to the step of depositing the temporary coating onto the main surface of the lens, at least part of the peripheral area of said main surface coated with the hydrophobic and/or oleophobic coating is submitted to a treatment resulting in the removal of said coating and/or to the modification of said coating that lowers the hydrophobic character thereof, in at least part of this peripheral area, and in that said temporary coating is deposited onto said main surface of the lens so as to further cover at least partially the peripheral area treated during the previous step. - providing an optical lens coated on at least one of the main surfaces thereof with a hydrophobic and/or oleophobic outer coating; - forming a temporary coating of polymeric nature onto said main surface of the lens so as to cover at least partially the hydrophobic and/or oleophobic coating, the temporary coating being formed by depositing onto said main surface of the lens a liquid coating composition, and then curing the liquid composition; - recovering the optical lens comprising onto at least one of the main surfaces thereof a hydrophobic and/or oleophobic outer coating and, in direct contact with said hydrophobic and/or oleophobic coating, a temporary polymeric coating adhering to the surface of the coated lens,
A polymeric anti-tumor agent, comprising a styrene maleic acid copolymer and an anti-tumor agent, characterized in that the molecular weight of the anti-tumor agent is less than 10 kDa, so that the polymeric anti-tumor agent forms a polymeric micelle complex, wherein the anti-tumor agent is bonded to the SMA through a non-covalent bond, and the anti-tumor agent is entrapped in the micelle.