mhurhangee/ep-ind-claims huggingface dataset:
A temperature sensor device comprising a sensing element, integrated in a semiconductor material chip and sensitive to temperature, and a sensing stage, coupled to the sensing element, wherein the sensing element comprises a sensing diode of a junction type, configured to be reverse biased, the sensing diode having a cathode terminal coupled to a biasing node and an anode terminal, wherein the biasing node is coupled to a voltage source configured to supply the biasing node with a voltage, characterized in that: the anode terminal of the sensing diode is coupled to a first input of the sensing stage; the voltage applied to the biasing node is positive with respect to the first input of the sensing stage and switches between a lower and a higher value causing a reverse voltage step applied across the sensing diode; and the sensing stage is configured to detect the capacitance variation with temperature of the sensing diode when the reverse voltage step is applied across the sensing diode and to output a voltage that directly varies with the capacitance variation. the anode terminal of the sensing diode is coupled to a first input of the sensing stage; the voltage applied to the biasing node is positive with respect to the first input of the sensing stage and switches between a lower and a higher value causing a reverse voltage step applied across the sensing diode; and the sensing stage is configured to detect the capacitance variation with temperature of the sensing diode when the reverse voltage step is applied across the sensing diode and to output a voltage that directly varies with the capacitance variation.
A rodent, comprising a replacement at the endogenous rodent Dpp4 locus of exons 2 through 26 of the Dpp4 gene with exons 2 through 26 of a human DPP4 gene to form a modified DPP4 gene, wherein expression of the modified DPP4 gene is under control of endogenous rodent regulatory elements of the endogenous rodent Dpp4 locus, wherein the rodent is a mouse or a rat, and wherein the rodent exhibits lung inflammation when infected with Middle East respiratory syndrome coronavirus (MERS-CoV).
Bipolar x-ray tube module comprising: a bipolar x-ray tube having an anode and a cathode; a positive voltage multiplier having a positive terminal and a ground terminal the positive voltage multiplier producing a first voltage gradient; and a negative voltage multiplier having a negative terminal and a ground terminal, the negative voltage multiplier producing a second voltage gradient, wherein the first voltage gradient is substantially parallel to the second voltage gradient, wherein the positive voltage multiplier and the negative voltage multiplier have an overlap distance, characterised in that the positive terminal is located more proximate to the ground terminal of the negative voltage multiplier than to the negative terminal, the negative terminal is located more proximate to the ground terminal of the positive voltage multiplier than to the positive terminal. a bipolar x-ray tube having an anode and a cathode; a positive voltage multiplier having a positive terminal and a ground terminal the positive voltage multiplier producing a first voltage gradient; and a negative voltage multiplier having a negative terminal and a ground terminal, the negative voltage multiplier producing a second voltage gradient, wherein the first voltage gradient is substantially parallel to the second voltage gradient, wherein the positive voltage multiplier and the negative voltage multiplier have an overlap distance, characterised in that the positive terminal is located more proximate to the ground terminal of the negative voltage multiplier than to the negative terminal, the negative terminal is located more proximate to the ground terminal of the positive voltage multiplier than to the positive terminal.
A mobile anechoic chamber comprising: an anechoic enclosure shielded from external electromagnetic radiation and adapted to be transportable using a vehicle, the enclosure comprising: a first antenna located within the enclosure and in communication with a first transmitter; a second antenna located within the enclosure and in communication with a second transmitter; a signal pass-through adapted to receive data signals from outside of the enclosure and make said data signals available to a device under test located within the enclosure; a vehicle condition sensor signal received from sensors located inside the vehicle transporting the chamber and supplied to the device under test within the enclosure, the vehicle condition sensor signal resulting from movement of the vehicle; a control computer which is adapted to: a. receive a first signal from a source of positioning signals; b. provide to the first transmitter an inside positioning signal corresponding to the first signal for transmission into the chamber via the first antenna; c. receive a second signal comprising the vehicle condition sensor signal; and d. provide a third signal to the second transmitter that interferes with the inside positioning signal for transmission into the chamber via the second antenna. a first antenna located within the enclosure and in communication with a first transmitter; a second antenna located within the enclosure and in communication with a second transmitter; a signal pass-through adapted to receive data signals from outside of the enclosure and make said data signals available to a device under test located within the enclosure; a vehicle condition sensor signal received from sensors located inside the vehicle transporting the chamber and supplied to the device under test within the enclosure, the vehicle condition sensor signal resulting from movement of the vehicle; a control computer which is adapted to: a. receive a first signal from a source of positioning signals; b. provide to the first transmitter an inside positioning signal corresponding to the first signal for transmission into the chamber via the first antenna; c. receive a second signal comprising the vehicle condition sensor signal; and d. provide a third signal to the second transmitter that interferes with the inside positioning signal for transmission into the chamber via the second antenna. a. receive a first signal from a source of positioning signals; b. provide to the first transmitter an inside positioning signal corresponding to the first signal for transmission into the chamber via the first antenna; c. receive a second signal comprising the vehicle condition sensor signal; and d. provide a third signal to the second transmitter that interferes with the inside positioning signal for transmission into the chamber via the second antenna.
A method for manufacturing a laminate comprising at least two spunbond layers (2, 3) of continuous filaments, wherein non-crimping continuous filaments and/or low-crimping continuous filaments are deposited to form at least one spunbond layer, wherein the at least one spunbond layer is compacted or pre-consolidated by means of at least one hot roller, wherein crimping continuous filaments or more strongly crimping continuous filaments compared to the continuous filaments of the first spunbond layer are then deposited over the first spunbond layer to form at least one second spunbond layer, characterized in that the second spunbond layer is compacted or pre-consolidated by means of at least one hot roller, wherein the temperature of the first hot roller for compacting or for pre-consolidating the first spunbond layer is higher than the temperature of the second hot roller for compacting or pre-consolidating the second spunbond layer and wherein the unit comprising the at least two spunbond layers (2, 3) is then consolidated so that the overall thickness d of the laminate is 0.15 to 3 mm, preferably 0.2 to 2.5 mm and is preferably 0.2 to 2 mm.
A nozzle for a fuel valve for injection of gaseous fuel into a large two-stroke turbocharged compression ignited internal combustion engine with crossheads, said nozzle comprising: a nozzle body extending in a main direction and axis X from a base at a proximal end of said nozzle body to a distal end of said nozzle body, said base being configured for attachment to said fuel valve, a plurality of nozzle holes arranged in said nozzle body at or near said distal end, an inlet port opening to said base for receiving fuel from said fuel valve, and a main bore extending in said main direction X from said inlet port into said nozzle body, characterized in that said main bore extends in said main direction X from said inlet port 48) into said nozzle body to a medial position between said proximal end and said distal end, with each nozzle hole being fluidly connected to said main bore by an individual supply passage extending from said main bore at said medial position to one of said nozzle holes. a nozzle body extending in a main direction and axis X from a base at a proximal end of said nozzle body to a distal end of said nozzle body, said base being configured for attachment to said fuel valve, a plurality of nozzle holes arranged in said nozzle body at or near said distal end, an inlet port opening to said base for receiving fuel from said fuel valve, and a main bore extending in said main direction X from said inlet port into said nozzle body, characterized in that said main bore extends in said main direction X from said inlet port 48) into said nozzle body to a medial position between said proximal end and said distal end, with each nozzle hole being fluidly connected to said main bore by an individual supply passage extending from said main bore at said medial position to one of said nozzle holes.
A process for preparing trans 1-chloro-3,3,3-trifluoropropene (E-1233zd) that comprises at least one step of isomerization of cis 1-chloro-3,3,3-trifluoropropene to trans 1-chloro-3,3,3-trifluoropropene in either liquid phase in the presence of a homogeneous catalyst selected from the group consisting of: salts of aluminum, titanium, tantalum, molybdenum, boron, tin, antimony and Bronsted acids or gas phase in the presence of a heterogeneous catalyst selected from the group consisting of a soluble Lewis acid of Sb V, Ti IV, Sn IV, Mo VI, Nb V and Ta V; antimony halides; acidic molecular sieves; Cr and zeolites.
A filling apparatus comprising: a plurality of hydrogen storage containers; a pipe communicating a filling hose and the hydrogen storage containers; a flow rate adjusting valve interposed in the pipe; and a control unit, wherein said control unit has a function of adjusting a threshold value for switching the hydrogen storage container communicating with the filling hose to another hydrogen storage container during hydrogen filling, and a function of adjusting valve opening degree of the flow rate adjusting valve, wherein said control unit has a function of lowering the threshold value to delay a timing when a pressure in the hydrogen storage container becomes equal to the threshold value with a discharge pressure of the hydrogen filling apparatus not deviating from a range of a filling protocol a measurement signal line in communication with the control unit and configured to receive vehicle-side tank information for use by the control unit. a plurality of hydrogen storage containers; a pipe communicating a filling hose and the hydrogen storage containers; a flow rate adjusting valve interposed in the pipe; and a control unit, wherein said control unit has a function of adjusting a threshold value for switching the hydrogen storage container communicating with the filling hose to another hydrogen storage container during hydrogen filling, and a function of adjusting valve opening degree of the flow rate adjusting valve, wherein said control unit has a function of lowering the threshold value to delay a timing when a pressure in the hydrogen storage container becomes equal to the threshold value with a discharge pressure of the hydrogen filling apparatus not deviating from a range of a filling protocol a measurement signal line in communication with the control unit and configured to receive vehicle-side tank information for use by the control unit.
Method for selecting a network slice instantiation (S0,S1,S2) in a communication network for the transmission of uplink data from a user terminal, the method comprising the following steps, subsequent to the receipt of an uplink packet (Pi) by a communication module of the user terminal: verify, by means of the communication module, the correspondence between the uplink packet and at least one rule (R1,R2) stored by the user terminal, said rule designating a network slice instantiation able to transmit the uplink packet in the communication network; and when the uplink packet corresponds to a rule designating a network slice instantiation able to transmit the packet, transmit, by means of the communication module, the uplink packet to an entity for access to the user plane (ANUP 1) of the network slice instantiation designated by said rule. verify, by means of the communication module, the correspondence between the uplink packet and at least one rule (R1,R2) stored by the user terminal, said rule designating a network slice instantiation able to transmit the uplink packet in the communication network; and when the uplink packet corresponds to a rule designating a network slice instantiation able to transmit the packet, transmit, by means of the communication module, the uplink packet to an entity for access to the user plane (ANUP 1) of the network slice instantiation designated by said rule.
A method for reducing total suspended solids, chemical oxygen demand and turbidity in wastewater from olive oil mill, wineries, piggeries, cowsheds, slaughterhouses, fruit and vegetable processing industry, or soy or coffee bean industry, by neutralizing the charge of suspended colloidal particles while bridging between them and anchoring them to an anchoring particle, wherein said method comprises the treatment of said wastewater with a nanocomposite previously prepared added to said wastewater in a single step, said nanocomposite consisting of an anchoring particle being a clay mineral selected from an aluminium or magnesium phyllosilicate such as sepiolite, palygorskite, smectite, montmorillonite, hectorite, laponite, bentonite and saponite, a zeolite, diatomaceous earth or powdered activated carbon, and a polycationic polymer selected from: (i) a linear water-soluble polymer selected from poly(diallyl dimethylammonium) chloride (herein poly-DADMAC or PDADMAC) and cationic polyacrylamide, preferably polyDADMAC; (ii) a polyquaternium selected from quaternized hydroxyethylcellulose ethoxylate and poly [(2-ethyldimethylammonioethyl methacrylate ethyl sulfate)-co-(1-vinylpyrrolidone)]; (iii) cationic biopolymers selected from cationic guar gum and chitosan, preferably chitosan; and (iv) polymers with aromatic rings such as poly-4-vinylpyridine-co-styrene.
A frame assembly comprising a first member (4,5) and a second member (7,8) connected to the first member (4,5) by a connecting device with one of the first and second members extending substantially transversely of the other one of the first and second members, the first member (4,5) having a bore extending longitudinally therein, and the second member (7,8) having one of a bore and a channel extending longitudinally therein, the connecting device comprising a body member engageable in the bore of the first member (4,5), a guide member extending from the body member and slideably engaging the one of the bore and the channel of the second member (7,8) for adjustably guiding and retaining the second member (7,8) transversely relative to the first member (4,5), an engagement means engageable with the first member (4,5) for retaining the body member in the bore of the first member (4,5), a limit means co-operable with the guide member and the second member (7,8) limiting the amount of transverse adjustable movement of the second member (7,8) relative to the first member (4,5), and a securing means co-operable with the guide member and the second member (7,8) securing the second member (7,8) in a selectable position transversely relative to the first member (4,5), characterised in that the body member defines a hollow interior region and an entry slot into the hollow interior region, and the guide member is located in the hollow interior region of the body member and extends therefrom through the entry slot.
An optical device operating as an optical gate within a wavelength range centred on a reference wavelength λ 0 and delivering an optical output signal upon injection of a first optical signal, the optical device comprising a photonic crystal structure having a semiconductor substrate and at least one layer of semiconductor material exhibiting, at least locally, an array of periodic features corresponding to said photonic crystal structure arranged so as to form a resonant optical cavity with a wavelength within the operating wavelength range of said device, said device being characterised in that said material of the semiconductor layer is a gallium/indium/phosphorus alloy not exhibiting two-photon absorption for photons having a wavelength within the operating wavelength range of said device.
An electronic device (100, 300) to be immersed in a coolant filled in a cooling apparatus, and directly cooled, the electronic device (100; 300) being configured to be housed in any of a plurality of housing parts (14a, 14b, 14c, 14d) of the cooling apparatus, the electronic device (100; 300) comprising: a metal board (110; 310) to be held with a pair of board retainers disposed in the housing part; and one or more substrate groups (120; 320) attached to a first surface of the metal board (110; 310) and a second surface opposite the first surface, wherein each substrate group (120; 320) includes one or more first circuit boards (121; 321), each including a plurality of sockets (126a, 126b) for mounting a plurality of processors (124; 324) and main memories (125; 325) on one surface of a substrate, and a component for interconnecting the processors, a second circuit board (122; 322) including a mother board component which includes at least a chipset for controlling the main memory (125; 325), but does not include the sockets (126a, 126b; 326a, 326b) for mounting the processors (124; 324) and the main memories (125; 325), or the component for interconnecting the processors (124; 324), a connector for electrically connecting between the one or more first circuit boards (121; 321) and the second circuit board (122; 322), and a flow channel formed in a gap between a surface opposite the one surface of the one or more first circuit boards (121; 321), and one surface of the second circuit board (122; 322), which faces the surface opposite the one surface of the one or more first circuit boards (121; 321). a metal board (110; 310) to be held with a pair of board retainers disposed in the housing part; and one or more substrate groups (120; 320) attached to a first surface of the metal board (110; 310) and a second surface opposite the first surface, wherein each substrate group (120; 320) includes one or more first circuit boards (121; 321), each including a plurality of sockets (126a, 126b) for mounting a plurality of processors (124; 324) and main memories (125; 325) on one surface of a substrate, and a component for interconnecting the processors, a second circuit board (122; 322) including a mother board component which includes at least a chipset for controlling the main memory (125; 325), but does not include the sockets (126a, 126b; 326a, 326b) for mounting the processors (124; 324) and the main memories (125; 325), or the component for interconnecting the processors (124; 324), a connector for electrically connecting between the one or more first circuit boards (121; 321) and the second circuit board (122; 322), and a flow channel formed in a gap between a surface opposite the one surface of the one or more first circuit boards (121; 321), and one surface of the second circuit board (122; 322), which faces the surface opposite the one surface of the one or more first circuit boards (121; 321).
A method to identify the relative installation position of the modules used in an electronic system, whereby the system has a plurality of electronic modules that are linearly coupled to each other via a field bus system, at least one power supply unit with a power source that is assigned to the power supply unit and a central control unit, whereby the modules, segment by segment where applicable, are connected in series to the power source that is assigned to at least one power supply unit via input and outputs of the modules concerned that are appropriately connected to each other, whereby the input and the output of each module are connected to each other via a resistor and each module has a switch, with which the output of the module concerned can be connected to a reference potential, whereby a voltage recording device is assigned to each power source, with which the voltage at the output of the power source can be determined in relation to a reference potential and whereby the identification of the relevant installation position of the modules takes place by carrying out a measurement on each module of the system within the scope of a method that is executed automatically by means of appropriate programming, where the voltage present at the output of the power source that is pre-connected to the module concerned can be detected using the voltage recording device, whereby, during this measurement, in each case, - the power source that is pre-connected to the module has been activated, - the output of the module concerned is connected to the reference potential via the switch integrated into the switch, characterized in that during this measurement - the outputs of the remaining modules are not connected to the reference potential, from which the relative installation position of the modules results from the comparison of the voltages thereby determined. - the power source that is pre-connected to the module has been activated, - the output of the module concerned is connected to the reference potential via the switch integrated into the switch, - the outputs of the remaining modules are not connected to the reference potential, from which the relative installation position of the modules results from the comparison of the voltages thereby determined.