mhurhangee/ep-ind-claims huggingface dataset:
A transport refrigeration system comprising: a compartment; a vapor compression refrigeration system including: a compressor; a first heat exchanger downstream of the compressor along a refrigerant flowpath in a cooling mode; an expansion device; a second heat exchanger downstream of the expansion device along the refrigerant flowpath; and a fan for driving air along an air flowpath across the second heat exchanger for cooling the compartment in the cooling mode; a thermochemical refrigeration system coupled to the vapor compression refrigeration system downstream of the first heat exchanger and upstream of the second heat exchanger along the refrigerant flowpath in the cooling mode, wherein the thermochemical refrigeration system comprises: a reactor; an evaporator; and a valve arranged along a thermochemical refrigerant flowpath between the reactor and the evaporator; a valve operable between: a first condition where refrigerant from the vapor compression system passes through the evaporator; and a second condition where refrigerant from the vapor compression system bypasses the evaporator. a compartment; a vapor compression refrigeration system including: a compressor; a first heat exchanger downstream of the compressor along a refrigerant flowpath in a cooling mode; an expansion device; a second heat exchanger downstream of the expansion device along the refrigerant flowpath; and a fan for driving air along an air flowpath across the second heat exchanger for cooling the compartment in the cooling mode; a compressor; a first heat exchanger downstream of the compressor along a refrigerant flowpath in a cooling mode; an expansion device; a second heat exchanger downstream of the expansion device along the refrigerant flowpath; and a fan for driving air along an air flowpath across the second heat exchanger for cooling the compartment in the cooling mode; a thermochemical refrigeration system coupled to the vapor compression refrigeration system downstream of the first heat exchanger and upstream of the second heat exchanger along the refrigerant flowpath in the cooling mode, wherein the thermochemical refrigeration system comprises: a reactor; an evaporator; and a valve arranged along a thermochemical refrigerant flowpath between the reactor and the evaporator; a valve operable between: a first condition where refrigerant from the vapor compression system passes through the evaporator; and a second condition where refrigerant from the vapor compression system bypasses the evaporator. a reactor; an evaporator; and a valve arranged along a thermochemical refrigerant flowpath between the reactor and the evaporator; a valve operable between: a first condition where refrigerant from the vapor compression system passes through the evaporator; and a second condition where refrigerant from the vapor compression system bypasses the evaporator. a first condition where refrigerant from the vapor compression system passes through the evaporator; and a second condition where refrigerant from the vapor compression system bypasses the evaporator.
A method for remediation of a soil containing a difficult-to-extract cyanogen compound comprising adding a biodegradable chelating agent to the soil to thereby make the cyanogen compound elute and degrading the eluted cyanogen compound using microorganisms, characterized in that the microorganisms are Arthrobacter sp. No. 5 strain having the accession number FERM BP-11019.
Assembly, comprising a lower pile having an upper end and an upper superstructure having a lower end, said lower pile and said upper superstructure being connected to each other, wherein the upper end of the pile is provided with a conical ring (11; 13) that is conically shaped at one side and the lower end of the superstructure is provided with a conical ring (12; 14) that is conically shaped at one side, such that when engaging the upper end and the lower end, the conical sides of the conical rings contact each other, wherein the conical side (11a; 13a) of the respective conical ring (11, 13) is at an outer side of the upper end of the lower pile, wherein the conical side (12b; 14b) of the corresponding conical ring (12, 14) of the lower end of the upper superstructure is at the inner side of the lower end such that the upper end of the lower pile fits inside of the lower end of the upper superstructure, or, wherein the conical side of the respective conical ring (11, 13) is at an inner side of the upper end, the conical side of the corresponding conical ring (12, 14) of the lower end is at the outer side of the lower end such that the lower end of the upper superstructure fits inside of the upper end of the pile, wherein the conical side (11a; 13a) of the conical ring (11; 13) on the upper end of the lower pile tapers upwardly and the conical side (12b; 14b) of the conical ring (12; 14) of the lower end of the upper superstructure tapers downwardly, and wherein the lower end of the upper superstructure and the upper end of the lower pile each comprise two conical rings (12, 14; 11, 13) positioned approximately parallel to each other and at equal distance with respect to each other.
A method of processing multimedia data, including a plurality of video frames, the method comprising: initializing a pixel-level reference counter R ( i, j) = 0 for a current frame, where 0 ≤ i < W, 0 ≤ j < H, W is the width of the current frame, and H is the height of the current frame; performing a prediction of a next frame referring to the current frame; incrementing the pixel-level reference counter for each pixel of the current frame that is referenced during the prediction of the next frame; readjusting a macroblock bandwidth map of the current frame by scaling up the bandwidth map value for a N x M macroblock located at (x,y) by C + ∑ i = x x + N − 1 ∑ i = y y + M − 1 R i j, wherein C is a constant determined by experiment; and encoding the current frame with the readjusted macroblock bandwidth map of the current frame. initializing a pixel-level reference counter R ( i, j) = 0 for a current frame, where 0 ≤ i < W, 0 ≤ j < H, W is the width of the current frame, and H is the height of the current frame; performing a prediction of a next frame referring to the current frame; incrementing the pixel-level reference counter for each pixel of the current frame that is referenced during the prediction of the next frame; readjusting a macroblock bandwidth map of the current frame by scaling up the bandwidth map value for a N x M macroblock located at (x,y) by C + ∑ i = x x + N − 1 ∑ i = y y + M − 1 R i j, wherein C is a constant determined by experiment; and encoding the current frame with the readjusted macroblock bandwidth map of the current frame.
A wireless terminal, the wireless terminal comprising: a radiofrequency, RF, antenna configured to receive from a contactless smart card reader an RF communication signal (RF in air); a terminal interface including a user interface; a smart card application host; characterized in that the wireless terminal is configured to wirelessly communicate with the contactless smart card reader via RF per ISO standard 14443 or ISO 15693 so as to appear as a standard contactless smart card to the smart card reader; the wireless terminal further comprises: a smart card router configured to demodulate the RF communication signal (RF in air) received from the RF antenna and to route either a demodulated communication traffic signal (S in) to the smart card application host or a demodulated communication traffic signal (U in) to the terminal interface; wherein the smart card router is configured to determine the routing of the received RF communication signal based on information conveyed by the RF communication signal (RF in air). a radiofrequency, RF, antenna configured to receive from a contactless smart card reader an RF communication signal (RF in air); a terminal interface including a user interface; a smart card application host; characterized in that the wireless terminal is configured to wirelessly communicate with the contactless smart card reader via RF per ISO standard 14443 or ISO 15693 so as to appear as a standard contactless smart card to the smart card reader; the wireless terminal further comprises: a smart card router configured to demodulate the RF communication signal (RF in air) received from the RF antenna and to route either a demodulated communication traffic signal (S in) to the smart card application host or a demodulated communication traffic signal (U in) to the terminal interface; wherein the smart card router is configured to determine the routing of the received RF communication signal based on information conveyed by the RF communication signal (RF in air). a smart card router configured to demodulate the RF communication signal (RF in air) received from the RF antenna and to route either a demodulated communication traffic signal (S in) to the smart card application host or a demodulated communication traffic signal (U in) to the terminal interface; wherein the smart card router is configured to determine the routing of the received RF communication signal based on information conveyed by the RF communication signal (RF in air).
A method for smelting nickel oxide ore using pellets of nickel oxide ore, the method comprising: a pellet production step of producing pellets from the nickel oxide ore; and a reduction step of heating the pellets obtained at a predetermined reduction temperature with a reducing furnace, wherein, in the pellet production step, a drying process is applied to a lump obtained by forming the nickel oxide ore into an aggregate form by blowing hot air at 300°C to 400°C onto the lump to dry the lump, and the lump after having undergone the drying process is held at a temperature of 100°C to 170°C for 2 hours or more to apply heat treatment to produce pellets, and wherein the pellets obtained in the pellet production step are charged into the reducing furnace, and the pellets are preheat treated at a temperature of 400°C to 550°C with the reducing furnace prior to raising the reducing furnace to the reduction temperature in the reduction step. a pellet production step of producing pellets from the nickel oxide ore; and a reduction step of heating the pellets obtained at a predetermined reduction temperature with a reducing furnace, wherein, in the pellet production step, a drying process is applied to a lump obtained by forming the nickel oxide ore into an aggregate form by blowing hot air at 300°C to 400°C onto the lump to dry the lump, and the lump after having undergone the drying process is held at a temperature of 100°C to 170°C for 2 hours or more to apply heat treatment to produce pellets, and wherein the pellets obtained in the pellet production step are charged into the reducing furnace, and the pellets are preheat treated at a temperature of 400°C to 550°C with the reducing furnace prior to raising the reducing furnace to the reduction temperature in the reduction step.
An electronics housing for accommodating electronic components, in particular a fan electronics housing, wherein the electronics housing is tightly encapsulated, in particular designed according to an IP protection class, and comprises a leak test opening designed to perform a leak test of the entire electronics housing, wherein, in the leak test opening, a sealing plug made of silicone rubber is arranged, which has multiple sealing lips (3, 3', 3") closely abutting the leak test opening and causing a multi-sealing effect, wherein the sealing plug is designed to be translucent, and light signals are able to be transmitted between a housing interior and a housing environment through the sealing plug.
Device for transfer from an accumulation surface to a downstream conveyor, said transfer device having a first moving belt, characterized in that it has a second moving belt, positioned beyond the first moving belt coming from the accumulation surface, a stationary surface positioned between the two moving belts (5, 7), and a means for transfer from the accumulation surface to the first and second moving belts (5, 7), and to the stationary surface, for example a transfer means with a single tool or else a transfer means with two different tools that can work simultaneously.
Aircraft gas turbine thrust-reversing device with an engine having an engine cowling whose rear area can be moved in the axial direction of the engine from a closed forward-thrust position into a rearwardly moved thrust-reversing position in which a free, substantially annular space to a front and fixed area of the engine cowling is present, where on the engine cowling guide rails are arranged, inside which mounting elements can be moved by means of rollers or sliding elements, with which mounting elements the rear area of the engine cowling is mounted, characterized in that the guide rails have an oval and C-shaped cross-section, provided on a longitudinal side with a slot-like opening and are mounted with reference to an engine axis on radially outer and radially inner mounting projections arranged centrally and opposite to one another and designed in one piece with the C-shaped cross-section, said mounting projections being arranged on the narrow sides of the oval cross-section, and that the rollers or sliding elements are designed in the form of outer races of a spherical roller bearing.
A method for performing random access in a wireless communication system, the method comprising: transmitting a preamble for random access in uplink;and receiving, as a response to the preamble, a Medium Access Control, MAC, random access response message comprising a header including a sub-header; wherein the sub-header includes a one-bit indicator indicating that a Random Access Identifier, RAID, is included in the sub-header when the one-bit indicator has a first value, and indicating that a back-off information is included in the sub-header of the MAC random access response message when the one-bit indicator has a second value. transmitting a preamble for random access in uplink;and receiving, as a response to the preamble, a Medium Access Control, MAC, random access response message comprising a header including a sub-header;
A method for analyzing ions comprising: - providing ions from an ion source (501, 701) to a first ion mobility analyzer (502, 702), - separating the ions according to mobility in the first ion mobility analyzer (502, 702) wherein the first ion mobility analyzer (502, 702) is a trapped ion mobility spectrometry (TIMS) analyzer; - selecting ions of a limited mobility range; - activating or reacting the selected ions; - trapping the activated or reacted ions in a second ion mobility analyzer (505, 705) wherein the second ion mobility analyzer (505, 705) is a trapped ion mobility spectrometry (TIMS) analyzer; - separating the trapped ions according to mobility in the second ion mobility analyzer (505, 705); and - detecting the separated ions. - providing ions from an ion source (501, 701) to a first ion mobility analyzer (502, 702), - separating the ions according to mobility in the first ion mobility analyzer (502, 702) wherein the first ion mobility analyzer (502, 702) is a trapped ion mobility spectrometry (TIMS) analyzer; - selecting ions of a limited mobility range; - activating or reacting the selected ions; - trapping the activated or reacted ions in a second ion mobility analyzer (505, 705) wherein the second ion mobility analyzer (505, 705) is a trapped ion mobility spectrometry (TIMS) analyzer; - separating the trapped ions according to mobility in the second ion mobility analyzer (505, 705); and - detecting the separated ions.
A package that hermetically seals an integrated circuit mounted therein, the package comprising: a metal housing having an open upper portion, a wall surface, and a bottom surface formed by a metal unit; and a metal lid which is sealed to a wall upper surface of the housing, wherein the housing includes in the wall surface thereof a terminal sealing hole having a plurality of lead terminals inserted therethrough, and a glass unit which seals the plurality of lead terminals therein, the lead terminals are provided on the upper side of the center-line of the glass unit in a vertical direction of the wall surface, the thickness of the metal unit between the wall upper surface of the metal unit and the interface of the glass unit is set such that the heat capacity of the metal unit is set to the level where stress caused, when a process for sealing the housing and the lid is performed, by a difference between the temperature of the glass unit and the temperature of the metal unit does not damage the glass unit. a metal housing having an open upper portion, a wall surface, and a bottom surface formed by a metal unit; and a metal lid which is sealed to a wall upper surface of the housing, wherein the housing includes in the wall surface thereof a terminal sealing hole having a plurality of lead terminals inserted therethrough, and a glass unit which seals the plurality of lead terminals therein, the lead terminals are provided on the upper side of the center-line of the glass unit in a vertical direction of the wall surface, the thickness of the metal unit between the wall upper surface of the metal unit and the interface of the glass unit is set such that the heat capacity of the metal unit is set to the level where stress caused, when a process for sealing the housing and the lid is performed, by a difference between the temperature of the glass unit and the temperature of the metal unit does not damage the glass unit.
A heat pump hot-water supply system, comprising a heat pump hot-water supply device, an electricity storage device, and a control device, characterized in that the control device determines an operating time zone of the heat pump hot-water supply device among a nighttime of a current day and a daytime of a next day based on power conversion efficiency of the electricity storage device, coefficients of performance of the heat pump hot-water supply device of the current day and the next day, and an electricity rate structure of a commercial power system.
An apparatus for use in a user equipment, UE, the apparatus comprising processing circuitry configured to: receive information elements, IEs, configuring first and second sets of physical uplink control channel, PUCCH, resources for transmitting uplink control information, UCI, wherein each of the first and the second set of PUCCH resources include a first and a second PUCCH format resource having different UCI capacities; generate UCI for transmission using a selected PUCCH format resource, wherein: the PUCCH format resource is selected from the first set of PUCCH resources when the UE is configured with more than five component carriers and when UCI to be transmitted on PUCCH of a single uplink, UL, subframe includes either hybrid automatic repeat request acknowledgement, HARQ-ACK, bits only or a combination of HARQ-ACK bits and periodic channel state information, P-CSI, bits; and the first PUCCH format resource is selected based on the payload size of the UCI; and set transmission power for transmitting the UCI using the selected PUCCH format resource based on the payload size of the UCI and the number of resource blocks of the selected PUCCH resource. receive information elements, IEs, configuring first and second sets of physical uplink control channel, PUCCH, resources for transmitting uplink control information, UCI, wherein each of the first and the second set of PUCCH resources include a first and a second PUCCH format resource having different UCI capacities; generate UCI for transmission using a selected PUCCH format resource, wherein: the PUCCH format resource is selected from the first set of PUCCH resources when the UE is configured with more than five component carriers and when UCI to be transmitted on PUCCH of a single uplink, UL, subframe includes either hybrid automatic repeat request acknowledgement, HARQ-ACK, bits only or a combination of HARQ-ACK bits and periodic channel state information, P-CSI, bits; and the first PUCCH format resource is selected based on the payload size of the UCI; and set transmission power for transmitting the UCI using the selected PUCCH format resource based on the payload size of the UCI and the number of resource blocks of the selected PUCCH resource. the PUCCH format resource is selected from the first set of PUCCH resources when the UE is configured with more than five component carriers and when UCI to be transmitted on PUCCH of a single uplink, UL, subframe includes either hybrid automatic repeat request acknowledgement, HARQ-ACK, bits only or a combination of HARQ-ACK bits and periodic channel state information, P-CSI, bits; and the first PUCCH format resource is selected based on the payload size of the UCI; and set transmission power for transmitting the UCI using the selected PUCCH format resource based on the payload size of the UCI and the number of resource blocks of the selected PUCCH resource.
A method of wireless communication, effected by an user equipment, UE, apparatus for wireless communication, the method comprising: establishing at least one of first and second communication links (708, 714) with at least a first cell, the first communication link for receiving transmissions and the second communication link for sending transmissions; performing a handover of one of the first and second communication links (708, 714) to at least a second cell, wherein a virtual cell ID is reconfigured for the one of the first and second communication links (708, 714); and maintaining, with the first cell, the other of the one of the first and second communications links (708, 714). establishing at least one of first and second communication links (708, 714) with at least a first cell, the first communication link for receiving transmissions and the second communication link for sending transmissions; performing a handover of one of the first and second communication links (708, 714) to at least a second cell, wherein a virtual cell ID is reconfigured for the one of the first and second communication links (708, 714); and maintaining, with the first cell, the other of the one of the first and second communications links (708, 714).
A modified terminal deoxynucleotidyl transferase (TdT) comprising an amino acid sequence at least 90% identical to SEQ ID NOS. 1, 3, 5, 7, or 9 with a mutation in: a tryptophan at position 460 in SEQ ID NO. 1, position 332 in SEQ ID NO. 3, position 319 in SEQ ID NO 5, position 310 in SEQ ID NO 7, or position 450 in SEQ ID NO 9; a threonine at position 461 in SEQ ID NO. 1, position 333 in SEQ ID NO. 3, position 320 in SEQ ID NO 5, position 311 in SEQ ID NO 7, or position 451 in SEQ ID NO 9; a glycine at position 462 in SEQ ID NO. 1, position 334 in SEQ ID NO. 3, position 321 in SEQ ID NO 5, position 312 in SEQ ID NO 7, or position 452 in SEQ ID NO 9; a serine at position 463 in SEQ ID NO. 1, position 335 in SEQ ID NO. 3, position in 322 SEQ ID NO 5, position 313 in SEQ ID NO 7, or position 453 in SEQ ID NO 9; or an arginine at position 464 in SEQ ID NO. 1, position 336 in SEQ ID NO. 3, position 323 in SEQ ID NO 5, position 314 in SEQ ID NO 7, or position 454 in SEQ ID NO 9. a tryptophan at position 460 in SEQ ID NO. 1, position 332 in SEQ ID NO. 3, position 319 in SEQ ID NO 5, position 310 in SEQ ID NO 7, or position 450 in SEQ ID NO 9; a threonine at position 461 in SEQ ID NO. 1, position 333 in SEQ ID NO. 3, position 320 in SEQ ID NO 5, position 311 in SEQ ID NO 7, or position 451 in SEQ ID NO 9; a glycine at position 462 in SEQ ID NO. 1, position 334 in SEQ ID NO. 3, position 321 in SEQ ID NO 5, position 312 in SEQ ID NO 7, or position 452 in SEQ ID NO 9; a serine at position 463 in SEQ ID NO. 1, position 335 in SEQ ID NO. 3, position in 322 SEQ ID NO 5, position 313 in SEQ ID NO 7, or position 453 in SEQ ID NO 9; or an arginine at position 464 in SEQ ID NO. 1, position 336 in SEQ ID NO. 3, position 323 in SEQ ID NO 5, position 314 in SEQ ID NO 7, or position 454 in SEQ ID NO 9.