mhurhangee/ep-ind-claims huggingface dataset:
Multifunctional pocket knife consisting of a handle formed of two integral sides (3, 3') providing at least one storage space for folding tools each pivoting around the connecting pins respectively arranged at each end of the handle, said storage space comprising at least one return spring arranged to fix said tool in the active open position respectively in the closed inactive position, characterized in that one of the tools consists of a pair of scissors extending along the longitudinal axis of said knife, consisting of two flat blades (9, 9 ') each comprising a cutting edge (10, 10') and both pivoting around the same axis, in that the pivoting end (11, 11') of each of said blades (9, 9') cooperates with a return spring, said spring ensuring that the blade is maintained in the active and open position respectively inactive and closed, said spring exerting an elastic force on the blade sufficient to keep the pair of scissors open once deployed, in that one of the blades (9, 9') has on the internal face of its end (11, 11') a pin cooperating with a recess provided through the pivoting end (11, 11') of the other blade, and in that the stroke of the pin in the recess determines the maximum spacing of the blades and.
A positive electrode comprising: a current collector; a first layer capable of irreversible deintercalation of lithium ions; and a second layer capable of reversible intercalation and deintercalation of lithium ions, wherein: the first layer comprises a first active material represented by Formula 1 below, and/or a second active material represented by Formula 2 below: Formula 1 Li 2 Mo 1-n R 1 n O 3 Formula 2 Li 2 Ni 1-m R 2 m O 2 wherein, in Formula 1, 0≤n<1; and R 1 is selected from the group consisting of manganese (Mn), iron (Fe), cobalt (Co), copper (Cu), zinc (Zn), magnesium (Mg), nickel (Ni), and combinations thereof; and in Formula 2, 0≤m<1; and R 2 is selected from the group consisting of Mn, Fe, Co, Cu, Zn, Mg, Mo, and combinations thereof; the second layer comprises a positive active material; and the first layer is disposed between the current collector and the second layer. a current collector; a first layer capable of irreversible deintercalation of lithium ions; and a second layer capable of reversible intercalation and deintercalation of lithium ions, wherein: the first layer comprises a first active material represented by Formula 1 below, and/or a second active material represented by Formula 2 below: Formula 1 Li 2 Mo 1-n R 1 n O 3 Formula 2 Li 2 Ni 1-m R 2 m O 2 wherein, in Formula 1, 0≤n<1; and R 1 is selected from the group consisting of manganese (Mn), iron (Fe), cobalt (Co), copper (Cu), zinc (Zn), magnesium (Mg), nickel (Ni), and combinations thereof; and in Formula 2, 0≤m<1; and R 2 is selected from the group consisting of Mn, Fe, Co, Cu, Zn, Mg, Mo, and combinations thereof; the second layer comprises a positive active material; and the first layer is disposed between the current collector and the second layer. the first layer comprises a first active material represented by Formula 1 below, and/or a second active material represented by Formula 2 below: Formula 1 Li 2 Mo 1-n R 1 n O 3 Formula 2 Li 2 Ni 1-m R 2 m O 2 wherein, in Formula 1, 0≤n<1; and R 1 is selected from the group consisting of manganese (Mn), iron (Fe), cobalt (Co), copper (Cu), zinc (Zn), magnesium (Mg), nickel (Ni), and combinations thereof; and in Formula 2, 0≤m<1; and R 2 is selected from the group consisting of Mn, Fe, Co, Cu, Zn, Mg, Mo, and combinations thereof; the second layer comprises a positive active material; and the first layer is disposed between the current collector and the second layer.
A method of transmitting content performed by a portable terminal of a transmitter, the method comprising: connecting to, when a request for a transmission of content is input, a portable terminal of a receiver through a control communication interface; receiving, through the control communication interface from the portable terminal of the receiver, status information comprising information on which wireless communication function is supported by which protocol selecting a type of wireless communication function which can be utilized in common with the portable terminal of the receiver based on the status information; transmitting, through the control communication interface, to the portable terminal of the receiver, setting data for controlling the selected wireless communication function in the portable terminal of the receiver; activating a second interface corresponding to the selected type of wireless communication function; connecting to the portable terminal of the receiver through the second interface; and transmitting the content to the portable terminal of the receiver through the second interface, wherein the control communication interface and the second interface are short-range communication interfaces, the method being characterized in that the setting data includes a control parameter for controlling the transmitted content in the portable terminal of the receiver. connecting to, when a request for a transmission of content is input, a portable terminal of a receiver through a control communication interface; receiving, through the control communication interface from the portable terminal of the receiver, status information comprising information on which wireless communication function is supported by which protocol selecting a type of wireless communication function which can be utilized in common with the portable terminal of the receiver based on the status information; transmitting, through the control communication interface, to the portable terminal of the receiver, setting data for controlling the selected wireless communication function in the portable terminal of the receiver; activating a second interface corresponding to the selected type of wireless communication function; connecting to the portable terminal of the receiver through the second interface; and transmitting the content to the portable terminal of the receiver through the second interface, wherein the control communication interface and the second interface are short-range communication interfaces, the method being characterized in that the setting data includes a control parameter for controlling the transmitted content in the portable terminal of the receiver.
A vacuum insulating panel comprising: a first substrate; a second substrate; a plurality of spacers provided in a gap between at least the first and second substrates, wherein the gap is at pressure less than atmospheric pressure; a pump-out tube extending at least partly into an aperture in one of the substrates; and characterized by a pump-out tube seal comprising from about 20-80 wt.% tellurium oxide, the tellurium oxide comprising TeO 4 and TeO 3, and wherein the pump-out tube seal comprises more TeO 3 than TeO 4 by wt.%. a first substrate; a second substrate; a plurality of spacers provided in a gap between at least the first and second substrates, wherein the gap is at pressure less than atmospheric pressure; a pump-out tube extending at least partly into an aperture in one of the substrates; and characterized by a pump-out tube seal comprising from about 20-80 wt.% tellurium oxide, the tellurium oxide comprising TeO 4 and TeO 3, and wherein the pump-out tube seal comprises more TeO 3 than TeO 4 by wt.%.
A scheduler for a cellular telecommunications network having a first base station corresponding to a first cell and serving a cell area, the scheduler being adapted to: identify mobile devices (63,64) located at the edge of the cell area; obtain resource usage information of mobile devices located at the edge of neighbouring cell areas; and, allocate resource blocks for data transmissions based on the location of the mobile devices and the received resource usage information, wherein those data transmissions with a high priority indication and which are for mobile devices located at the edge of the cell area are allocated with a higher priority than those data transmissions with a high priority indication and which are for mobile devices not located at the edge of the cell area, and those data transmissions with a high priority indication and which are for mobile devices not located at the edge of the cell area are allocated with a higher priority than those data transmissions without a high priority indication and which are for mobile devices located in the cell area. identify mobile devices (63,64) located at the edge of the cell area; obtain resource usage information of mobile devices located at the edge of neighbouring cell areas; and, allocate resource blocks for data transmissions based on the location of the mobile devices and the received resource usage information, wherein those data transmissions with a high priority indication and which are for mobile devices located at the edge of the cell area are allocated with a higher priority than those data transmissions with a high priority indication and which are for mobile devices not located at the edge of the cell area, and those data transmissions with a high priority indication and which are for mobile devices not located at the edge of the cell area are allocated with a higher priority than those data transmissions without a high priority indication and which are for mobile devices located in the cell area.
A process for preparing an amine by reacting a primary or secondary alcohol, aldehyde and/or ketone with hydrogen and a nitrogen compound selected from the group of ammonia, primary and secondary amines, in the presence of a zirconium dioxide-, copper- and nickel-containing catalyst, wherein the catalytically active composition of the catalyst, before its reduction with hydrogen, comprises in the range from 35 to 65% by weight of oxygen compounds of zirconium, calculated as ZrO 2, 4 to 10% by weight of oxygen compounds of copper, calculated as CuO, 25 to 45% by weight of oxygen compounds of nickel, calculated as NiO, 1.0 to 4.5% by weight of oxygen compounds of tin, calculated as SnO, and 1.5 to 4.5% by weight of oxygen compounds of cobalt, calculated as CoO, and wherein the catalytically active composition of the catalyst does not comprise any ruthenium.
An NBR composition comprising an NBR polymer, a vulcanizing agent, a vulcanizing accelerator, and carbon black, wherein the carbon black includes a combination of MT carbon black and at least one kind of carbon black selected from carbon black having an iodine absorption number of 20 mg/g or less and a DBP absorption number of 40 cm 3 /100 g or more, and is added in a total amount of 160 to 220 parts by weight based on 100 parts by weight of the NBR polymer, the amount of the MT carbon black is larger than the carbon black having an iodine absorption number of 20 mg/g or less and a DBP absorption number of 40 cm 3 /100 g or more, and the amount of the carbon black having an iodine absorption number of 20 mg/g or less and a DBP absorption number of 40 cm 3 /100 g or more is 10 to 70 parts by weight based on 100 parts by weight of the NBR composition.
A belt sander comprising: a first roller; a second roller; a motor operationally coupled to the first roller to cause rotation thereof; a groove formed in the first roller; and a sanding belt; characterised in that it further comprises a band within the groove, the band being in contact with the sanding belt of the belt sander during operation thereof and configured to impart motion of the first roller to the sanding belt for rotation of the sanding belt around the first roller and the second roller. a first roller; a second roller; a motor operationally coupled to the first roller to cause rotation thereof; a groove formed in the first roller; and a sanding belt; characterised in that it further comprises a band within the groove, the band being in contact with the sanding belt of the belt sander during operation thereof and configured to impart motion of the first roller to the sanding belt for rotation of the sanding belt around the first roller and the second roller.
An nth-order phase-shift sinusoidal oscillator, comprising: n operational transconductance amplifiers and capacitors (OTA-Cs), neighbored to each other, each of the OTA-Cs comprising: two input ends, one of the input ends defined as an input-linked end, the other one of the input ends defined as a grounding end; a first output end, connected to the input-linked end of the first OTA-C; and a grounding capacitor, one end of which being connected to the input-linked end, the other end of the grounding capacitor being grounded; n-1 OTA-C sub circuits, each of the OTA-C sub circuits further comprising: an OTA-C sub circuit first input end, connected to the input-linked end of one of the OTA-Cs, a range of OTA-Cs which connected to the OTA-C sub circuit being from the second OTA-C to nth OTA-C; an OTA-C sub circuit second input end, connected to ground; an OTA-C sub circuit output end, connected to the OTA sub circuit first input end; wherein, each of the OTA-Cs from the first OTA-C to the nth OTA-C further comprises a second output end, each second output being connected to the input-linked end of the neighboring OTA-C. n operational transconductance amplifiers and capacitors (OTA-Cs), neighbored to each other, each of the OTA-Cs comprising: two input ends, one of the input ends defined as an input-linked end, the other one of the input ends defined as a grounding end; a first output end, connected to the input-linked end of the first OTA-C; and a grounding capacitor, one end of which being connected to the input-linked end, the other end of the grounding capacitor being grounded; two input ends, one of the input ends defined as an input-linked end, the other one of the input ends defined as a grounding end; a first output end, connected to the input-linked end of the first OTA-C; and a grounding capacitor, one end of which being connected to the input-linked end, the other end of the grounding capacitor being grounded; n-1 OTA-C sub circuits, each of the OTA-C sub circuits further comprising: an OTA-C sub circuit first input end, connected to the input-linked end of one of the OTA-Cs, a range of OTA-Cs which connected to the OTA-C sub circuit being from the second OTA-C to nth OTA-C; an OTA-C sub circuit second input end, connected to ground; an OTA-C sub circuit output end, connected to the OTA sub circuit first input end; an OTA-C sub circuit first input end, connected to the input-linked end of one of the OTA-Cs, a range of OTA-Cs which connected to the OTA-C sub circuit being from the second OTA-C to nth OTA-C; an OTA-C sub circuit second input end, connected to ground; an OTA-C sub circuit output end, connected to the OTA sub circuit first input end; wherein, each of the OTA-Cs from the first OTA-C to the nth OTA-C further comprises a second output end, each second output being connected to the input-linked end of the neighboring OTA-C.
A crystal of (+)-cis-5R-hydroxy-4R-(trifluoromethyl)-3-{1-[2-(trifluoromethyl)pyrimidin-5-yl]piperidin-4-yl}-1,4,5,7-tetrahydro-6H-pyrazolo[3,4-b]pyridin-6-one which exhibits main peaks at d-spacings of 12.00, 8.53, 6.10, 5.42, 4.56, 4.32, 3.83, 3.60, 3.39, and 3.04 angstroms in a powder X-ray diffraction pattern obtained by exposure to copper Kα radiation.
Control method for an industrial truck with a receiving device for a wireless signal of a portable transmitting device that can be carried by a person, wherein the receiving device is connected to a control device, characterized in that the control device determines a distance from the industrial truck on the basis of a signal level of a transmitted signal of the portable transmitting device and, if a fixed working distance is exceeded, the industrial truck is moved by the control device, using a traction drive of the industrial truck, until the distance from the industrial truck is less than the fixed working distance.
An electronic device identification system, comprising: a rectifier bridge for providing an output DC voltage of fixed polarity from an input DC voltage of a corresponding or reverse polarity; an identification component coupled across an input to said rectifier bridge; and electrical detection circuitry removably coupled to the input of the identification component; wherein the electrical detection circuitry is arranged to identify the presence of the identification component, and is arranged to permit the rectifier bridge to provide an output DC voltage when the identification component is identified; and wherein said identification component discharges a capacitor coupled across said input to said rectifier bridge and coupled to exposed terminals connected to said input to prevent electric shock hazard from said exposed terminals, wherein the capacitor is discharged when the input DC voltage is removed. a rectifier bridge for providing an output DC voltage of fixed polarity from an input DC voltage of a corresponding or reverse polarity; an identification component coupled across an input to said rectifier bridge; and electrical detection circuitry removably coupled to the input of the identification component; wherein the electrical detection circuitry is arranged to identify the presence of the identification component, and is arranged to permit the rectifier bridge to provide an output DC voltage when the identification component is identified; and wherein said identification component discharges a capacitor coupled across said input to said rectifier bridge and coupled to exposed terminals connected to said input to prevent electric shock hazard from said exposed terminals, wherein the capacitor is discharged when the input DC voltage is removed.
Electromagnetic flowmeter with a coil arrangement and a circuit to control a supply voltage of the coil arrangement, wherein the circuit is designed to operate the supply voltage of the coil arrangement according to the following voltage curve: A) Increase in the voltage from a starting voltage I to an overvoltage II; B) Where necessary, maintaining the voltage at overvoltage II; C) Drop from overvoltage II to a holding voltage V; characterized in that the circuit controls the drop in voltage from the overvoltage to the holding voltage by setting the voltage to at least two (or more) predefined intermediate target values III, IV. A) Increase in the voltage from a starting voltage I to an overvoltage II; B) Where necessary, maintaining the voltage at overvoltage II; C) Drop from overvoltage II to a holding voltage V;
Gear wheel for use in a gear wheel transmission, comprising - a main body that comprises a ring gear with - numerous first teeth with a first formability and - numerous second teeth with a second formability, wherein - the second formability is larger than the first formability, characterized in that - the second teeth are only circumferentially sized over the first teeth. - a main body that comprises a ring gear with - numerous first teeth with a first formability and - numerous second teeth with a second formability, wherein - the second formability is larger than the first formability, characterized in that - the second teeth are only circumferentially sized over the first teeth.
A computer-implemented image processing method, comprising: converting an original image represented by a first color space into the original image represented by a second color space, wherein a correlation between color components of respective channels in the second color space of the original image is smaller than a correlation between color components of respective channels in the first color space; and denoising channel images formed by the color components of the respective channels in the second color space respectively to obtain denoised images corresponding to the respective channel images; and obtaining a target image based on the denoised images; the method characterized in that the obtaining the target image based on the denoised images comprises: fusing a first channel image in all the channel images and a first denoised image corresponding to the first channel image to obtain a composite image; and obtaining the target image based on the composite image and a second denoised image corresponding to a second channel image other than the first channel image. converting an original image represented by a first color space into the original image represented by a second color space, wherein a correlation between color components of respective channels in the second color space of the original image is smaller than a correlation between color components of respective channels in the first color space; and denoising channel images formed by the color components of the respective channels in the second color space respectively to obtain denoised images corresponding to the respective channel images; and obtaining a target image based on the denoised images; the method characterized in that the obtaining the target image based on the denoised images comprises: fusing a first channel image in all the channel images and a first denoised image corresponding to the first channel image to obtain a composite image; and obtaining the target image based on the composite image and a second denoised image corresponding to a second channel image other than the first channel image. fusing a first channel image in all the channel images and a first denoised image corresponding to the first channel image to obtain a composite image; and obtaining the target image based on the composite image and a second denoised image corresponding to a second channel image other than the first channel image.
A method (200, 250) of delivering explosives comprising: receiving a geologic profile; determining, via processor circuitry, any inflection points in geologic values within the geologic profile, wherein the geologic values represent geologic characteristics along a length of a blasthole or along a distance of a blast pattern; segmenting, via processor circuitry, the geologic profile into groups (112, 114) separated by any identified inflection points; determining, via processor circuitry, a target explosive energy value for each group based on a representative geologic value for each group, thereby generating a target explosive energy profile comprising the target explosive energy value for each group, wherein the representative geologic value is defined by a probability distribution, an average geologic value, a maximum geologic value, or a minimum geologic value for a particular group; delivering via a delivery system an explosive with explosive energy values according to the target explosive energy profile; wherein an energetic substance and an energy-modulating agent are mixed to form the explosive. receiving a geologic profile; determining, via processor circuitry, any inflection points in geologic values within the geologic profile, wherein the geologic values represent geologic characteristics along a length of a blasthole or along a distance of a blast pattern; segmenting, via processor circuitry, the geologic profile into groups (112, 114) separated by any identified inflection points; determining, via processor circuitry, a target explosive energy value for each group based on a representative geologic value for each group, thereby generating a target explosive energy profile comprising the target explosive energy value for each group, wherein the representative geologic value is defined by a probability distribution, an average geologic value, a maximum geologic value, or a minimum geologic value for a particular group; delivering via a delivery system an explosive with explosive energy values according to the target explosive energy profile; wherein an energetic substance and an energy-modulating agent are mixed to form the explosive.