mhurhangee/ep-ind-claims huggingface dataset:
A vending machine for use in a networked environment, comprising: a frame having an exterior surface, wherein the frame defines an interior area; at least one rack in the interior area, configured to hold at least one insert for holding a plurality of vending products, wherein the at least one insert displays readable identification data; at least one insert sensor, configured to read the readable identification data; at least one weight sensor engaged with the rack, configured to determine weight data for the at least one insert; and a consumer input device, configured to receive consumer information data; a processor, coupled to the at least one insert sensor, the at least one weight sensor, the consumer input device, and a network connection, and configured to receive vending data, wherein the vending data may comprise at least one selected from the group of: the readable identification data from the at least one insert sensor, the weight data from the at least one weight sensor, and the consumer information data from the consumer input device; and transmit the vending data over the network connection. a frame having an exterior surface, wherein the frame defines an interior area; at least one rack in the interior area, configured to hold at least one insert for holding a plurality of vending products, wherein the at least one insert displays readable identification data; at least one insert sensor, configured to read the readable identification data; at least one weight sensor engaged with the rack, configured to determine weight data for the at least one insert; and a consumer input device, configured to receive consumer information data; a processor, coupled to the at least one insert sensor, the at least one weight sensor, the consumer input device, and a network connection, and configured to receive vending data, wherein the vending data may comprise at least one selected from the group of: the readable identification data from the at least one insert sensor, the weight data from the at least one weight sensor, and the consumer information data from the consumer input device; and transmit the vending data over the network connection.
A solar cell comprising: a substrate; a back electrode layer on the substrate; a light absorbing layer on the back electrode layer; a buffer layer on the light absorbing layer (300, 350); and a window layer on the buffer layer, wherein the buffer layer is formed from a chemical compound (Mg x Zn 1-x)O, in which the x has a value in a range of 0.1 to 0.5 and its band gap energy is in a range of 3.3eV to 3.6eV, characterized in that the light absorbing layer (300, 350) is a copper(Cu)-indium(In)-gallium(Ga)-selenium(Se) crystal based light absorbing layer (300, 350) comprising a first portion and a second portion on the back electrode layer; wherein the first portion of the light absorbing layer has a chemical formula of (Cu(In,Ga)Se 2) and is disposed on the back electrode layer, wherein the second portion of the light absorbing layer which further comprises zinc(Zn) has a chemical formula of (Cu(In,Ga)Se 2):Zn and is formed between the first portion of the light absorbing layer and the buffer layer, wherein window layer has a chemical formula of (ZnO:Ga), wherein a mass ratio of Ga in the ZnO:Ga of the window layer is in a range of 0.1% to 3%, wherein a band gap energy of the first portion of the light absorbing layer is in a range of 1.1eV to 1.2eV, wherein the band gap energy of the second portion of the light absorbing layer is in a range of 2.4eV to 2.8eV,and wherein the band gap energy of the window layer is in a range of 3.6eV to 3.8eV. a substrate; a back electrode layer on the substrate; a light absorbing layer on the back electrode layer; a buffer layer on the light absorbing layer (300, 350); and a window layer on the buffer layer, wherein the buffer layer is formed from a chemical compound (Mg x Zn 1-x)O, in which the x has a value in a range of 0.1 to 0.5 and its band gap energy is in a range of 3.3eV to 3.6eV, characterized in that the light absorbing layer (300, 350) is a copper(Cu)-indium(In)-gallium(Ga)-selenium(Se) crystal based light absorbing layer (300, 350) comprising a first portion and a second portion on the back electrode layer; wherein the first portion of the light absorbing layer has a chemical formula of (Cu(In,Ga)Se 2) and is disposed on the back electrode layer, wherein the second portion of the light absorbing layer which further comprises zinc(Zn) has a chemical formula of (Cu(In,Ga)Se 2):Zn and is formed between the first portion of the light absorbing layer and the buffer layer, wherein window layer has a chemical formula of (ZnO:Ga), wherein a mass ratio of Ga in the ZnO:Ga of the window layer is in a range of 0.1% to 3%, wherein a band gap energy of the first portion of the light absorbing layer is in a range of 1.1eV to 1.2eV, wherein the band gap energy of the second portion of the light absorbing layer is in a range of 2.4eV to 2.8eV,and wherein the band gap energy of the window layer is in a range of 3.6eV to 3.8eV.
A method for producing a test instrument used to evaluate decontamination process that includes at least one of a cleaning, disinfection or drying process of internal flexible channels, comprising: obtaining a medical instrument having a flexible probe section configured for insertion into a body, the flexible probe section including at least one internal flexible channel and at least one external device port; and attaching an access device between the at least one external device port and the at least one internal flexible channel to enable selective access into the internal flexible channel, characterized in that attaching the access device comprises removing an exterior sheath from the flexible probe section to expose the at least one external device port and the at least one internal flexible channel of the medical instrument. obtaining a medical instrument having a flexible probe section configured for insertion into a body, the flexible probe section including at least one internal flexible channel and at least one external device port; and attaching an access device between the at least one external device port and the at least one internal flexible channel to enable selective access into the internal flexible channel, characterized in that attaching the access device comprises removing an exterior sheath from the flexible probe section to expose the at least one external device port and the at least one internal flexible channel of the medical instrument.
A transducer assembly, comprising: a transducer that provides transducer output bursts; a transducer circuit that repetitively detects the transducer output bursts and that provides an output representative of displacement, the transducer circuit comprising: a pulse detection circuit that receives the transducer output bursts and that provides an amplified output; and a displacement calculation circuit that receives the amplified output and that generates the output representative of displacement; an energy storage device coupled to a power input of the transducer circuit; a switching power supply that couples to the energy storage device and that has repetitive suppressed states during which switching in the switching power supply is suppressed; and a sequence circuit that couples to the switching power supply and to the transducer circuit, the sequence circuit providing synchronization of the repetitive suppressed states of the switching power supply with the repetitive detecting of the transducer output bursts; wherein the pulse detection circuit couples a second amplified output to the sequence circuit, and the sequence circuit couples a switching control output to the switching power supply after the pulse detection circuit detects a first portion of a transducer output burst. a transducer that provides transducer output bursts; a transducer circuit that repetitively detects the transducer output bursts and that provides an output representative of displacement, the transducer circuit comprising: a pulse detection circuit that receives the transducer output bursts and that provides an amplified output; and a displacement calculation circuit that receives the amplified output and that generates the output representative of displacement; a pulse detection circuit that receives the transducer output bursts and that provides an amplified output; and a displacement calculation circuit that receives the amplified output and that generates the output representative of displacement; an energy storage device coupled to a power input of the transducer circuit; a switching power supply that couples to the energy storage device and that has repetitive suppressed states during which switching in the switching power supply is suppressed; and a sequence circuit that couples to the switching power supply and to the transducer circuit, the sequence circuit providing synchronization of the repetitive suppressed states of the switching power supply with the repetitive detecting of the transducer output bursts; wherein the pulse detection circuit couples a second amplified output to the sequence circuit, and the sequence circuit couples a switching control output to the switching power supply after the pulse detection circuit detects a first portion of a transducer output burst.
A method of wireless communication performed by a user equipment, UE, comprising: receiving a configuration message with a configured grant indicating a transmission occasion for a plurality of uplink transmissions, wherein the transmission occasion comprises a set of transmission opportunities each transmission opportunity available for transmission of a respective repetition of a single communication and associated with a different time resource within the transmission occasion, and wherein the configuration message includes configuration information to cause the UE to transmit using a particular demodulation reference signal, DMRS, port hopping configuration, and wherein said DMRS port hopping configuration configures the UE to: select a set of different demodulation reference signal, DMRS, ports, each corresponding to a different transmission opportunity in the transmission occasion; transmit, using a first DMRS port of the selected set of DMRS ports, a first transmission of the single communication in a corresponding first transmission opportunity of the transmission occasion; and transmit, using a second DMRS port, that is different from the first DMRS port, a repetition of the single communication in a corresponding second transmission opportunity of the transmission occasion. select a set of different demodulation reference signal, DMRS, ports, each corresponding to a different transmission opportunity in the transmission occasion; transmit, using a first DMRS port of the selected set of DMRS ports, a first transmission of the single communication in a corresponding first transmission opportunity of the transmission occasion; and transmit, using a second DMRS port, that is different from the first DMRS port, a repetition of the single communication in a corresponding second transmission opportunity of the transmission occasion.
A compound of Formula wherein, R 1 is CO 2 R 2; R 2 is H, (C 1 -C 6)-alkyl, (C 1 -C 6)-hydroxyalkyl, or (C 1 -C 6)-aminoalkyl; X 1 is H or halogen; X 2 is H or halogen; Y is a bond, C=O, C=S, C=NH, or C=N(C 1 -C 4)-alkyl; Z is A 1 is NR 7, O, S or CH 2; A 2 is N or CH; A 3 is NR 7, O, or S; R 3 through R 6 are independently hydrogen, halogen, cyano, acyl, haloalkyl, haloalkoxy, haloalkylthio, trifluoroacetyl, (C 1 -C 4)-alkyl, (C 1 -C 4)-alkoxy, (C 1 -C 4)-alkylthio, (C 1 -C 4)-alkylsulfinyl, or (C 1 -C 4)-alkylsulfonyl; and R 7 is hydrogen, C 1 -C 4 alkyl, or C O-(C 1 -C 4)-alkyl; or a pharmaceutically acceptable salt or solvate thereof. R 1 is CO 2 R 2; R 2 is H, (C 1 -C 6)-alkyl, (C 1 -C 6)-hydroxyalkyl, or (C 1 -C 6)-aminoalkyl; X 1 is H or halogen; X 2 is H or halogen; Y is a bond, C=O, C=S, C=NH, or C=N(C 1 -C 4)-alkyl; Z is A 1 is NR 7, O, S or CH 2; A 2 is N or CH; A 3 is NR 7, O, or S; R 3 through R 6 are independently hydrogen, halogen, cyano, acyl, haloalkyl, haloalkoxy, haloalkylthio, trifluoroacetyl, (C 1 -C 4)-alkyl, (C 1 -C 4)-alkoxy, (C 1 -C 4)-alkylthio, (C 1 -C 4)-alkylsulfinyl, or (C 1 -C 4)-alkylsulfonyl; and R 7 is hydrogen, C 1 -C 4 alkyl, or C O-(C 1 -C 4)-alkyl; or a pharmaceutically acceptable salt or solvate thereof.
A multilayer film comprising: (a) a first layer comprising a first composition, wherein the first composition comprises at least one ethylene-based polymer and wherein the first composition has a density of less than 0.935 g/cm 3, a melt index (I 2) of less than 2.0 g/10 minutes, a MWCDI value greater than 0.9, and a melt index ratio (I 10 /I 2) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2), wherein the first layer comprises at least 50 percent by weight of the first composition based on the weight of the first layer; (b) a second layer comprising a first polyethylene having a density of greater than 0.950 g/cm 3 and a melt index (I 2) of less 2.0 g/10 minutes, wherein the second layer comprises at least 40 percent by weight of the first polyethylene based on the weight of the second layer; and (c) a third layer which is a sealant layer, wherein the multilayer film comprises at least 29 weight percent of the first composition based on the total weight of the film, and wherein the multilayer film comprises at least 15 weight percent of the first polyethylene based on the total weight of the film, wherein the multilayer film does not include polyamide, wherein the multilayer film has an overall density from 0.924 to 0.940 g/cm 3, wherein the densities are measured according to ASTM D792 (method B), the melt indices I 2 and I 10 are measured according to ASTM D1238 (method B) at 190°C and at 2.16 kg and 10 kg load, respectively, and the MWCDI is measured as set out in the description. (a) a first layer comprising a first composition, wherein the first composition comprises at least one ethylene-based polymer and wherein the first composition has a density of less than 0.935 g/cm 3, a melt index (I 2) of less than 2.0 g/10 minutes, a MWCDI value greater than 0.9, and a melt index ratio (I 10 /I 2) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2), wherein the first layer comprises at least 50 percent by weight of the first composition based on the weight of the first layer; (b) a second layer comprising a first polyethylene having a density of greater than 0.950 g/cm 3 and a melt index (I 2) of less 2.0 g/10 minutes, wherein the second layer comprises at least 40 percent by weight of the first polyethylene based on the weight of the second layer; and (c) a third layer which is a sealant layer, wherein the multilayer film does not include polyamide, wherein the multilayer film has an overall density from 0.924 to 0.940 g/cm 3, wherein the densities are measured according to ASTM D792 (method B), the melt indices I 2 and I 10 are measured according to ASTM D1238 (method B) at 190°C and at 2.16 kg and 10 kg load, respectively, and the MWCDI is measured as set out in the description.
An adenoviral vector comprising the genome of chimpanzee adenovirus C68, wherein the genome of the adenovirus has been modified such that the vector lacks the native E4 locus of the C68 adenovirus and comprises heterologous E4Orf4, E40rf6 and E40rf6/7 coding regions from AdHu5 in the E4 locus of the C68 adenovirus, and wherein the adenoviral vector further comprises heterologous E40rfl, E40rf2 and E40rf3 coding regions from AdY25, wherein the adenoviral vector lacks a functional E 1 locus and wherein the adenoviral vector lacks an E3 locus.
An electronic circuit (300, 400) arranged to receive an oscillating signal and output an output signal at a frequency having a frequency relation with the oscillating signal defined by a divide ratio, the electronic circuit (300, 400) comprising a first frequency divider (302, 402) arranged to receive the oscillating signal and output N frequency divided signals of different phases (φ 1, φ 2,..., φ N); a second frequency divider (304, 404) arranged to receive one of the N signals and frequency divide the received signal by a value given by a first control signal provided to the second frequency divider; N latch circuits (306, 406) each being arranged to receive a respective one of the N signals at a clocking input of the respective latch circuit (306, 406) and to receive an output of the second frequency divider (304, 404) at an input of the respective latch circuit (306, 406); a multiplexer circuit (308, 408) arranged to receive outputs of the N latch circuits (306, 406) and to output a signal, on which the output signal is based, selected from the received signals based on a second control signal provided to the multiplexer circuit (308, 408); and a control circuit (320, 420) arranged to provide the first control signal and the second control signal based on the divide ratio.
A personal wearable EEG monitor with a battery, said EEG monitor comprises - a base part having signal processing means, - an electrode part with at least two electrodes (11, 12) for measuring an EEG signal of a person, said electrode part comprises means for converting the EEG signal into a digital signal, and - a databus comprising two electrical wires for transferring data between said base part and said electrode part and for providing power either from the base part to the electrode part or from the electrode part to the base part through said two electrical wires, wherein the databus is configured to apply at least three different states in different time slots, where a first state is for transfer of power from the battery to the electrode part, a second state is for transmission of signal from said base part to said electrode part, and a third state is for transmission of signal from said electrode part to said base part, wherein said battery is arranged in the base part and a capacitor is arranged in the electrode part, wherein said capacitor is configured to be charged during said first state for transfer of power, and is configured to supply power in the second and third state where no power is transmitted from the battery through the databus, wherein said electrode part comprises a receiver for providing a sound signal to said person, wherein said receiver is configured to be short-circuited during the second and third state during transmission of signal through the databus, wherein short-circuiting the receiver is achieved by controlling four switches of an H-bridge included in the electrode part, such that the receiver will not draw any power in the time where data is transferred on the databus, but only in the time where power is transferred. - a base part having signal processing means, - an electrode part with at least two electrodes (11, 12) for measuring an EEG signal of a person, said electrode part comprises means for converting the EEG signal into a digital signal, and - a databus comprising two electrical wires for transferring data between said base part and said electrode part and for providing power either from the base part to the electrode part or from the electrode part to the base part through said two electrical wires,
An air conditioner outdoor unit connected to an indoor unit by a gaseous refrigerant communication pipe and a liquid refrigerant communication pipe, the outdoor unit comprising: a gas-side shut-off valve having a first connecting port to which the gaseous refrigerant communication pipe is connected; and a liquid-side shut-off valve having a second connecting port to which the liquid refrigerant communication pipe is connected, wherein the first connecting port and second connecting port being, in a plan view, offset from each other in both the depthwise direction and the widthwise direction, and characterised in that the first connecting port and second connecting port face downward; the outdoor unit further comprising: a box-shaped casing (21, 22, 23, 61) that covers the gas-side shut-off valve and the liquid-side shut-off valve and has an opening below the gas-side shut-off valve and the liquid-side shut-off valve; and bottom-raising members (51, 52, 53, 54) serving to secure a space between the surface on which the outdoor unit is to be installed and a bottom panel of the casing. a gas-side shut-off valve having a first connecting port to which the gaseous refrigerant communication pipe is connected; and a liquid-side shut-off valve having a second connecting port to which the liquid refrigerant communication pipe is connected, wherein the first connecting port and second connecting port being, in a plan view, offset from each other in both the depthwise direction and the widthwise direction, and characterised in that the first connecting port and second connecting port face downward; the outdoor unit further comprising: a box-shaped casing (21, 22, 23, 61) that covers the gas-side shut-off valve and the liquid-side shut-off valve and has an opening below the gas-side shut-off valve and the liquid-side shut-off valve; and bottom-raising members (51, 52, 53, 54) serving to secure a space between the surface on which the outdoor unit is to be installed and a bottom panel of the casing. a box-shaped casing (21, 22, 23, 61) that covers the gas-side shut-off valve and the liquid-side shut-off valve and has an opening below the gas-side shut-off valve and the liquid-side shut-off valve; and bottom-raising members (51, 52, 53, 54) serving to secure a space between the surface on which the outdoor unit is to be installed and a bottom panel of the casing.
Rack storage system comprising multi-level storage racks which define therebetween an aisle, in which shuttles travel in the storage levels along the storage racks as serving units for placing/removing loads into/out of the storage racks, wherein at least one vertical lift is arranged within the floor space of the storage racks of an aisle in such a manner that the shuttles can travel on rails along the rack front sides facing the aisle past the vertical lift and can place down or pick up a load via a buffer conveyor (6A, B) arranged next to the vertical lift, wherein the buffer conveyor (6A, B) conveys a load onwards to the vertical lift or receives same from the vertical lift, wherein the system is configured in such a manner that, in a storage connection level contained in the rack storage system, loads are deposited and also picked up merely on one side of the vertical lift, wherein the vertical lift has a reversible lift conveyor, characterised in that the storage conveyor and the removal conveyor of the storage connection level are both arranged on one side next to the vertical lift as a single dual conveyor in the contact area of only one storage rack and in that the dual conveyor has a longitudinal division such that a longitudinal half conveys towards the vertical lift and the other longitudinal half conveys away from the vertical lift in the same level and that the lift conveyor is divided virtually or physically by guides corresponding to the dual conveyor division and this division with the longitudinal halves is aligned in each case in the storage connection level in the direction of the longitudinal orientation of the storage rack and so the halves of the dual conveyor are aligned with the halves of the vertical lift when they are located at the same height.