mhurhangee/ep-ind-claims huggingface dataset:
A laptop elevation device for laptop computers, said laptop elevation device comprising: a base; a leg pivotally attached to the base; an attachment means located on the base for attaching the base of the laptop elevation device to a bottom surface of a laptop computer; characterised by at least one non-slip strip; and an attachment means located on the at least one non-slip strip for attaching the at least one non-slip strip of the laptop elevation device to a bottom surface of a laptop computer. a base; a leg pivotally attached to the base; an attachment means located on the base for attaching the base of the laptop elevation device to a bottom surface of a laptop computer; characterised by at least one non-slip strip; and an attachment means located on the at least one non-slip strip for attaching the at least one non-slip strip of the laptop elevation device to a bottom surface of a laptop computer.
A temperature sensor arrangement, comprising: - a current integrating modulator having an input terminal to receive a current signal and an output terminal to provide a count value (ADC _COUNT) dependent on the current supplied to the input terminal; - a temperature sensitive element to generate a current (IPTAT) dependent on temperature, the temperature sensitive element including a resistor; - another resistor; and - first and second switches (31, 32) to alternately connect the temperature sensitive element and the other resistor to the input terminal of the current integrating modulator, characterized in that the temperature sensitive element comprises a bandgap circuit (221, 222, 223) having a first and a second path, the first path including a first transistor and the resistor, the second path including a second transistor, the first transistor and the second transistor having different sizes, an amplifier connected to the first and second paths of the bandgap circuit, a current mirror (252, 253) controlled by the output of the amplifier having an output path coupled to the input terminal of the current integrating modulator. - a current integrating modulator having an input terminal to receive a current signal and an output terminal to provide a count value (ADC _COUNT) dependent on the current supplied to the input terminal; - a temperature sensitive element to generate a current (IPTAT) dependent on temperature, the temperature sensitive element including a resistor; - another resistor; and - first and second switches (31, 32) to alternately connect the temperature sensitive element and the other resistor to the input terminal of the current integrating modulator, the temperature sensitive element comprises a bandgap circuit (221, 222, 223) having a first and a second path, the first path including a first transistor and the resistor, the second path including a second transistor, the first transistor and the second transistor having different sizes, an amplifier connected to the first and second paths of the bandgap circuit, a current mirror (252, 253) controlled by the output of the amplifier having an output path coupled to the input terminal of the current integrating modulator.
An electronic atomization device with an adjustable air inlet, comprising a cigarette holder (10; 60), an atomizer (20; 70) connected to the cigarette holder and a battery assembly for supplying power to the atomizer, wherein further comprises an air inlet (21; 71) disposed at the upper portion of the atomizer for connecting the atomizer to outside world and a switch assembly disposed between the atomizer and the cigarette holder for opening or closing the air inlet, characterized in that, wherein the switch assembly comprises a round ring (51; 75) sandwiched between the atomizer and the cigarette holder and a sealing block (52; 76) fixed inside the round ring for opening or closing the air inlet, the round ring being coaxial with the atomizer, and when the round ring rotates with respect to the atomizer, the air inlet will be opened or closed by the sealing block which is driven by the round ring, wherein the sealing block contacts with an upper surface of the air inlet and the upper surface of the air inlet is an inclined surface so that the sealing block is capable of applying pressing force onto the upper surface of the air inlet when the air inlet is closed completely by means of the sealing block.
A clock select circuit for providing a selected clock signal to its output, comprising: a first branch, which includes a first latch arranged to be clocked by a first clock signal, the first branch having a logic gate at the output for passing the first clock signal to the circuit output in dependence on the first latch output; a second branch, which includes a second latch arranged to be clocked by a second clock signal, the second branch having a logic gate at the output for passing the second clock signal to the circuit output in dependence on the second latch output; a first feedback arrangement from the output of the first latch to the second branch before the second latch a second feedback arrangement from the output of the second latch to the first branch before the first latch; an override circuit (40, 42, 60, 62) provided in the first or second feedback arrangements for preventing a latching delay in that feedback arrangement, the override circuit comprising a clock switch control unit (40,60) having a further latch arranged to receive a clock select signal (CLK_SELECT), a clock signal from the circuit output (CLK_OUT) and to output a latched clock select signal (CLK_SWITCHBACK), and a logic gate arrangement (42,62) to combine the feedback signal of the associated feedback arrangement with the latched clock select signal to override the feedback signal, and wherein one of the clock signals (CLK0,CLK1) is a phase delayed version of the other with the same clock period. a first branch, which includes a first latch arranged to be clocked by a first clock signal, the first branch having a logic gate at the output for passing the first clock signal to the circuit output in dependence on the first latch output; a second branch, which includes a second latch arranged to be clocked by a second clock signal, the second branch having a logic gate at the output for passing the second clock signal to the circuit output in dependence on the second latch output; a first feedback arrangement from the output of the first latch to the second branch before the second latch a second feedback arrangement from the output of the second latch to the first branch before the first latch; an override circuit (40, 42, 60, 62) provided in the first or second feedback arrangements for preventing a latching delay in that feedback arrangement, the override circuit comprising a clock switch control unit (40,60) having a further latch arranged to receive a clock select signal (CLK_SELECT), a clock signal from the circuit output (CLK_OUT) and to output a latched clock select signal (CLK_SWITCHBACK), and a logic gate arrangement (42,62) to combine the feedback signal of the associated feedback arrangement with the latched clock select signal to override the feedback signal, and wherein one of the clock signals (CLK0,CLK1) is a phase delayed version of the other with the same clock period.
Stator for an electric machine, wherein the stator comprises a multiplicity of hairpin conductors, wherein the hairpin conductors are connected to one another such that three stator windings are formed, wherein the stator comprises current transfer elements for transferring current, wherein one stator winding is assigned to each current transfer element, wherein the stator comprises a connecting element for connecting the stator windings to form a circuit, wherein the stator has insulating elements, wherein the connecting element is insulated to both sides in an axial direction of the stator by at least one insulating element, wherein at least one first insulating element at a first axial end of the connecting element is designed for insulation with respect to the current transfer elements, and wherein at least one second insulating element at a second axial end of the connecting element is designed for insulation with respect to end regions of hairpin conductors, wherein the connecting element has connection regions which extend in the axial direction and which serve for the connection of at least one end region of a hairpin conductor of each stator winding, characterized in that the first insulating element has pocket-like regions for insulation of the connection regions of the connecting element with respect to the current transfer elements, wherein the pocket-like regions are placed over the connection regions of the connecting element. wherein the stator comprises a multiplicity of hairpin conductors, wherein the hairpin conductors are connected to one another such that three stator windings are formed, wherein the stator comprises current transfer elements for transferring current, wherein one stator winding is assigned to each current transfer element, wherein the stator comprises a connecting element for connecting the stator windings to form a circuit, wherein the stator has insulating elements, wherein the connecting element is insulated to both sides in an axial direction of the stator by at least one insulating element, wherein at least one first insulating element at a first axial end of the connecting element is designed for insulation with respect to the current transfer elements, and wherein at least one second insulating element at a second axial end of the connecting element is designed for insulation with respect to end regions of hairpin conductors, wherein the connecting element has connection regions which extend in the axial direction and which serve for the connection of at least one end region of a hairpin conductor of each stator winding, characterized in that the first insulating element has pocket-like regions for insulation of the connection regions of the connecting element with respect to the current transfer elements, wherein the pocket-like regions are placed over the connection regions of the connecting element.
Contactless electronic device comprising a near-field communication antenna, a microcircuit connected to the antenna and a magnetic shielding layer arranged so as to extend substantially facing the antenna, device wherein the antenna and the microcircuit are combined into a module and the device comprises a body comprising an open cavity on one of its faces, characterized in that the module and the shielding layer are housed into said cavity so that the shielding layer closes off the cavity.
A method of manufacturing an Organic Light-Emitting Diode (OLED) display substrate, comprising: forming an auxiliary electrode and an insulating layer sequentially on a base substrate; forming at least one via in the insulating layer, the via exposing at least a portion of the auxiliary electrode; forming an organic light-emitting layer on the insulating layer, wherein a portion of the organic light-emitting layer is formed in the via; injecting a conductive liquid into the via, wherein the conductive liquid is a conductive alloy or a solder in a molten state, and the organic light-emitting layer in the via is damaged by the conductive liquid which penetrates the organic light-emitting layer; curing the conductive liquid and electrically connecting the cured conductive liquid to the auxiliary electrode; and forming a first electrode layer on the organic light-emitting layer, and electrically connecting the first electrode layer to the auxiliary electrode through the cured conductive liquid in the via. forming an auxiliary electrode and an insulating layer sequentially on a base substrate; forming at least one via in the insulating layer, the via exposing at least a portion of the auxiliary electrode; forming an organic light-emitting layer on the insulating layer, wherein a portion of the organic light-emitting layer is formed in the via; injecting a conductive liquid into the via, wherein the conductive liquid is a conductive alloy or a solder in a molten state, and the organic light-emitting layer in the via is damaged by the conductive liquid which penetrates the organic light-emitting layer; curing the conductive liquid and electrically connecting the cured conductive liquid to the auxiliary electrode; and forming a first electrode layer on the organic light-emitting layer, and electrically connecting the first electrode layer to the auxiliary electrode through the cured conductive liquid in the via.
An actuator comprising a lock release element and an unlocking apparatus, the unlocking apparatus comprising: a first member; and a second member movable between a blocking position in which said second member is engaged with said first member so as to block movement of said first member and an unblocking position in which said second member is disengaged from said first member so that movement of the first member is not blocked; wherein the first member is an arm arranged such that in the blocking position it is disposed between said second member and the lock release element of said actuator; characterized in that: the first member is curved such that in use a blocking force from said second member in the blocking position is in a substantially different direction from an axial force applied by the lock release element to the first member. a first member; and a second member movable between a blocking position in which said second member is engaged with said first member so as to block movement of said first member and an unblocking position in which said second member is disengaged from said first member so that movement of the first member is not blocked; wherein the first member is an arm arranged such that in the blocking position it is disposed between said second member and the lock release element of said actuator; characterized in that: the first member is curved such that in use a blocking force from said second member in the blocking position is in a substantially different direction from an axial force applied by the lock release element to the first member.
A torque limiting device comprising: a) a housing having a proximal end spaced apart from a distal end, the proximal end being connectable to a handle; b) a shaft having a longitudinal axis extending along a shaft proximal end spaced apart from a shaft distal end, the shaft proximal end residing within the housing; c) a torque gear having a torque gear distal surface spaced from a torque gear proximal surface, a torque gear throughbore therebetween, an inner surface of the torque gear throughbore being in frictional contact with an outer surface of the shaft, and a plurality of ball bearings residing between the torque gear and the housing, the ball bearings being in contact with the proximal surface of the torque gear and an internal surface of the housing; d) a variable force applying subassembly positioned circumferentially around the shaft, proximal of the torque gear, the subassembly being engagable with the torque gear; e) wherein rotation of the handle is capable of causing rotation of the torque gear and the shaft until a maximum threshold force value provided by the variable force applying subassembly is exceeded; characterized in that the torque limiting device futher comprises f) a lock bushing residing circumferentially around the shaft, distal of the handle and proxymally adjacent the ball bearings. a) a housing having a proximal end spaced apart from a distal end, the proximal end being connectable to a handle; b) a shaft having a longitudinal axis extending along a shaft proximal end spaced apart from a shaft distal end, the shaft proximal end residing within the housing; c) a torque gear having a torque gear distal surface spaced from a torque gear proximal surface, a torque gear throughbore therebetween, an inner surface of the torque gear throughbore being in frictional contact with an outer surface of the shaft, and a plurality of ball bearings residing between the torque gear and the housing, the ball bearings being in contact with the proximal surface of the torque gear and an internal surface of the housing; d) a variable force applying subassembly positioned circumferentially around the shaft, proximal of the torque gear, the subassembly being engagable with the torque gear; e) wherein rotation of the handle is capable of causing rotation of the torque gear and the shaft until a maximum threshold force value provided by the variable force applying subassembly is exceeded; characterized in that the torque limiting device futher comprises f) a lock bushing residing circumferentially around the shaft, distal of the handle and proxymally adjacent the ball bearings.
A hard sintered body comprising a binder phase at from 8.8 to 34.4 mol% and the balance being a hard phase and inevitable impurities, wherein the binder phase contains iron aluminide containing FeAl as a main component and alumina that is dispersed in the iron aluminide and has a particle size of 1 μm or less, wherein the content of the alumina in the binder phase is from 24.2 to 50.0 mol%, and the hard phase includes at least one kind selected from carbides, nitrides, carbonitrides and borides of Group 4 metals, Group 5 metals and Group 6 metals in the periodic table, and solid solutions of these.
An anti-PD-L1 antibody for use in the treatment of cancer in a subject provided that the subject has been found to have medium or low level of methylation at genomic coordinate hg19 chr9:5449887-5449891 and/or at one or more CpG sites in genomic coordinate hgl9 chr9: 5450934-5451072 in a sample containing cancer cells from the subject, (i) wherein medium level of methylation is between about 20% to about 40% methylation and wherein low level of methylation is less than about 20% methylation, where the methylation level is determined by bisulfite sequencing, (ii) wherein the medium level of methylation is between about 5% to about 60% methylation and wherein low level of methylation is less than about 5% methylation, where the methylation is determined by next-generation bisulfite sequencing, or (iii) wherein medium level of methylation is a beta value between about 0.2 to 0.3 and wherein low level of methylation is a beta value of less than about 0.2, where the methylation level is determined using a methylation chip array. (i) wherein medium level of methylation is between about 20% to about 40% methylation and wherein low level of methylation is less than about 20% methylation, where the methylation level is determined by bisulfite sequencing, (ii) wherein the medium level of methylation is between about 5% to about 60% methylation and wherein low level of methylation is less than about 5% methylation, where the methylation is determined by next-generation bisulfite sequencing, or (iii) wherein medium level of methylation is a beta value between about 0.2 to 0.3 and wherein low level of methylation is a beta value of less than about 0.2, where the methylation level is determined using a methylation chip array.
A mounting jacket for receiving an airbag for a vehicle occupant restraint system which can be transferred from an idle condition to an inflated condition and in the inflated condition forms an impact area for a vehicle occupant, the mounting jacket including a seam which is arranged at least partially at a distance from a first precut - preferably including a perforation - for opening the mounting jacket upon inflation of the airbag, wherein the mounting jacket includes a second precut and a third precut, which are arranged at least partially between the seam and the first precut, characterized in that the first precut, the second precut, and the third precut divide a first portion of the mounting jacket into a first zone, a second zone and a third zone, with the third zone being a front or rear end portion of the mounting jacket, and with the second zone being disposed between the first zone and the third zone forming a predetermined tearing portion at the first precut upon inflation of the airbag.
A method for transmitting a reference signal of a base station in a mobile communication system, comprising the steps of: determining, at the base station, information for a reference signal, the reference signal comprising at least one resource element, for a non zero transmission power reference signal; generating, at the base station, information for a zero transmission power reference signal comprising a bitmap indicating the zero transmission power reference signal; and transmitting, at the base station, the information for the reference signal and the information for the zero power reference signal to a terminal, wherein the information for the reference signal comprises information for a number of antenna ports. determining, at the base station, information for a reference signal, the reference signal comprising at least one resource element, for a non zero transmission power reference signal; generating, at the base station, information for a zero transmission power reference signal comprising a bitmap indicating the zero transmission power reference signal; and transmitting, at the base station, the information for the reference signal and the information for the zero power reference signal to a terminal, wherein the information for the reference signal comprises information for a number of antenna ports.
A processing device comprising: a sound collection unit configured to collect an environmental sound outside an own vehicle; a filter unit configured to perform filtering of the environmental sound collected by the sound collection unit, for emphasizing, from the collected environmental sound, a sound characterizing a current position of the own vehicle of which the environmental sound is collected, to generate a filtered sound; and a processing unit configured to cause the environmental sound including the filtered sound to be output to the inside of the own vehicle, a detection unit configured to detect a current position of the own vehicle, the processing device characterized in that: the filter unit is configured to select a frequency filter that emphasizes the sound characterizing the current position from among a plurality of frequency filters on the basis of the current position and performs the filtering with the selected frequency filter, wherein each frequency filter of the plurality of frequency filters causes a component having a certain frequency band to pass therethrough and reduces components having other frequency bands and said plurality of frequency filters have frequency bands for reduction which are different from each other. a sound collection unit configured to collect an environmental sound outside an own vehicle; a filter unit configured to perform filtering of the environmental sound collected by the sound collection unit, for emphasizing, from the collected environmental sound, a sound characterizing a current position of the own vehicle of which the environmental sound is collected, to generate a filtered sound; and a processing unit configured to cause the environmental sound including the filtered sound to be output to the inside of the own vehicle, a detection unit configured to detect a current position of the own vehicle, the processing device characterized in that: the filter unit is configured to select a frequency filter that emphasizes the sound characterizing the current position from among a plurality of frequency filters on the basis of the current position and performs the filtering with the selected frequency filter, wherein each frequency filter of the plurality of frequency filters causes a component having a certain frequency band to pass therethrough and reduces components having other frequency bands and said plurality of frequency filters have frequency bands for reduction which are different from each other.