mhurhangee/patent-ind-claim-en huggingface dataset:
An additive manufacturing machine , comprising: a lowering device to lower a platform incrementally to accommodate a succession of layers of build material; a layering device to layer build material on to the platform; a measuring device to measure an actual distance the platform is lowered; an applicator to selectively apply an agent to build material on the platform; and a controller programmed to: instruct the lowering device to lower the platform a nominal distance; determine from the measuring device an actual distance the platform is lowered; instruct the layering device to layer build material on to the lowered platform; and instruct the applicator to apply the agent to build material on the platform in an amount corresponding to the actual distance measured by the measuring device. a lowering device to lower a platform incrementally to accommodate a succession of layers of build material; a layering device to layer build material on to the platform; a measuring device to measure an actual distance the platform is lowered; an applicator to selectively apply an agent to build material on the platform; and a controller programmed to: instruct the lowering device to lower the platform a nominal distance; determine from the measuring device an actual distance the platform is lowered; instruct the layering device to layer build material on to the lowered platform; and instruct the applicator to apply the agent to build material on the platform in an amount corresponding to the actual distance measured by the measuring device. instruct the lowering device to lower the platform a nominal distance; determine from the measuring device an actual distance the platform is lowered; instruct the layering device to layer build material on to the lowered platform; and instruct the applicator to apply the agent to build material on the platform in an amount corresponding to the actual distance measured by the measuring device.
A floating-type platform system for a solar energy generating device with a platform comprising: a platform frame made of rigid material; and a plurality of floats each being an annular hollow member with buoyance and each including a center having a coupling hole through which a respective coupling post extends, with plural floats mounted on the respective coupling post and arranged in a row in a vertical direction to provide the platform with vertical buoyance to float on water , with the vertical rows of floats having a spacing therebetween to permit flow of water ; characterized in that the platform frame includes an outer frame portion extending horizontally, with the outer frame portion including a center having connecting rods , and with the outer frame portion including a plurality of elongated coupling posts extending vertically downwards therefrom; wherein the platform frame includes an adjusting portion capable of adjusting buoyance of the platform ; the adjusting portion being disposed to a location of the connecting rods aligned with the center of the outer frame portion , wherein the adjusting portion includes a hollow member extending downwards from the connecting rods and including a chamber in a center thereof and a filling port , and wherein the filling port of the adjusting portion is configured to fill a fluid into the chamber . a platform frame made of rigid material; and a plurality of floats each being an annular hollow member with buoyance and each including a center having a coupling hole through which a respective coupling post extends, with plural floats mounted on the respective coupling post and arranged in a row in a vertical direction to provide the platform with vertical buoyance to float on water , with the vertical rows of floats having a spacing therebetween to permit flow of water ; characterized in that the platform frame includes an outer frame portion extending horizontally, with the outer frame portion including a center having connecting rods , and with the outer frame portion including a plurality of elongated coupling posts extending vertically downwards therefrom; wherein the platform frame includes an adjusting portion capable of adjusting buoyance of the platform ; the adjusting portion being disposed to a location of the connecting rods aligned with the center of the outer frame portion , wherein the adjusting portion includes a hollow member extending downwards from the connecting rods and including a chamber in a center thereof and a filling port , and wherein the filling port of the adjusting portion is configured to fill a fluid into the chamber .
A value or security product , having a single-layer or multi-layer base body, wherein at least one of the layers of the base body comprises an upper side and a lower side , which is provided with a recess which is formed from an edge connecting the upper side to the lower side , and which is at least partially inclined at an angle with respect to a normal to the upper side or the lower side , wherein the recess is at least partially filled with a filling , which has an upper surface and a lower surface , and wherein the upper surface is connected to the lower surface by means of a side wall , wherein the side wall of the filling is designed to be complementary to the edge of the recess at least in some areas, characterized in that the edge of the recess extends at a first section inclined by a first angle with respect to the normal of the upper side or the lower side , and in that the edge of the recess extends at a second section inclined by a second angle deviating from the first angle with respect to the normal of the upper side or the lower side .
A terminal device, UE, comprising: a reception unit configured to monitor multiple enhanced physical downlink control channels, EPDCCHs, on a Secondary cell, wherein in a case that the Secondary cell is a licensed assisted access Secondary cell the terminal device is configured to monitor both a first set of UE-specific search space candidates in a first EPDCCH and a second set of UE-specific search space candidates in a second EPDCCH, in a subframe, a starting symbol for the first EPDCCH is specified by an index in a first slot in the subframe, and a starting symbol for the second EPDCCH is specified by the index in a second slot in the subframe, a second set of numbers of enhanced control channel elements, ECCEs, is used for the first EPDCCH, only a first set of the numbers of ECCEs is used for the second EPDCCH, the first set of the numbers of ECCEs includes 2, 4, 8, 16, and 32, and the second set of the numbers of ECCEs includes 1, 2, 4, 8, and 16. a reception unit configured to monitor multiple enhanced physical downlink control channels, EPDCCHs, on a Secondary cell, wherein in a case that the Secondary cell is a licensed assisted access Secondary cell the terminal device is configured to monitor both a first set of UE-specific search space candidates in a first EPDCCH and a second set of UE-specific search space candidates in a second EPDCCH, in a subframe, a starting symbol for the first EPDCCH is specified by an index in a first slot in the subframe, and a starting symbol for the second EPDCCH is specified by the index in a second slot in the subframe, a second set of numbers of enhanced control channel elements, ECCEs, is used for the first EPDCCH, only a first set of the numbers of ECCEs is used for the second EPDCCH, the first set of the numbers of ECCEs includes 2, 4, 8, 16, and 32, and the second set of the numbers of ECCEs includes 1, 2, 4, 8, and 16.
A synthetic method, the method comprising: introducing a protecting group to a hydroxy group and/or a mercapto group of a compound comprising said hydroxy group and/or a mercapto group by reacting the compound with an agent; and removing said protecting group from the hydroxy and/or mercapto group; said agent being represented by the following formula (I-a): wherein X is a halogen atom or OSO 2 R 5 , wherein R 5 is an aryl group or an alkyl group. introducing a protecting group to a hydroxy group and/or a mercapto group of a compound comprising said hydroxy group and/or a mercapto group by reacting the compound with an agent; and removing said protecting group from the hydroxy and/or mercapto group; said agent being represented by the following formula (I-a): wherein X is a halogen atom or OSO 2 R 5 , wherein R 5 is an aryl group or an alkyl group.
Method for operating a dishwasher, in particular a household dishwasher, during which liquid is applied to items to be washed by way of an activated recirculating pump (UP), at least for a time, and during which a minimum quantity of liquid of a quantity of operating liquid is conveyed out of a sump (PT) of the dishwasher (GS) by means of an activated drain pump (LP), at least for a time, wherein dirt particles contained in the liquid are kept away from the recirculating pump (UP) by means of a filter unit (FE) and, after the drain pump (LP) for conveying out the minimum quantity of liquid has been activated and deactivated, the recirculating pump (UP) is activated, the operating parameters of which are evaluated for a residual quantity of liquid remaining in the dishwasher (GS), wherein an optical and/or acoustic error signal is generated in response to the residual quantity of liquid being exceeded and/or wherein a cleaning program for cleaning the filter unit (FE) is performed in response to the residual quantity of liquid being exceeded, wherein the activation of the recirculating pump (UP) is a substep of a wash program provided in a control electronics unit of the dishwasher, and wherein the recirculating pump (UP) is brought into operation for a predetermined period of time according to the wash program after a pumping-out procedure has taken place, in order to check whether or not the residual quantity of liquid is situated in the dishwasher.
An infant formula comprising protein, digestible carbohydrates and fat, wherein the protein comprises the amino acids leucine, isoleucine and valine in a weight ratio leucine:isoleucine:valine of between (1.1-1.5):(0.9-1.1):1.0, and wherein the formula comprises 0.25 wt% to 5.5 wt% non-digestible oligosaccharides, based on dry weight, wherein the total protein content is: a. between 1.3 and 1.9 g protein/100 kcal; or b. between 5 and 8 % based on total calories of the composition. a. between 1.3 and 1.9 g protein/100 kcal; or b. between 5 and 8 % based on total calories of the composition.
Unmanned aerial vehicle (UAV) including an inner frame , an inner flight propulsion system mounted on the inner frame , an outer frame forming an outer protective cage that surrounds and protects the inner flight propulsion system, a gimbal system comprising a gimbal frame and at least two rotational couplings with orthogonal axes coupling the inner propulsion system to the outer frame, a control system , a power source , and an outer frame actuation system configured to actively orient the outer frame around at least one axis with respect to the inner frame, wherein the outer frame actuation system comprises an outer air propulsion system configured to govern the orientation of the outer frame, said outer air propulsion system fixed to the outer frame or to the gimbal frame , the inner flight propulsion system configured to enable the UAV to be suspended or flown without thrust from the outer propulsion system.
An aspartokinase variant, wherein the amino acid at position 377 in the amino acid sequence of SEQ ID NO: 1 is substituted with L-lysine or L-methionine.
An input apparatus comprising: a sensor film having a first curved surface and a second curved surface, the first curved surface being light-transmissive and provided in a detection area in which a sensor is formed, the second curved surface being provided in a non-detection area other than the detection area and having a radius of curvature smaller than a radius of curvature of the first curved surface; a resin layer provided on the sensor film and formed of a material containing a light-transmissive resin; and an extension-suppression layer provided in the detection area on the sensor film, the extension-suppression layer suppressing an extension amount of the detection area in the sensor film to be smaller than an extension amount of the non-detection area in the sensor film. a sensor film having a first curved surface and a second curved surface, the first curved surface being light-transmissive and provided in a detection area in which a sensor is formed, the second curved surface being provided in a non-detection area other than the detection area and having a radius of curvature smaller than a radius of curvature of the first curved surface; a resin layer provided on the sensor film and formed of a material containing a light-transmissive resin; and an extension-suppression layer provided in the detection area on the sensor film, the extension-suppression layer suppressing an extension amount of the detection area in the sensor film to be smaller than an extension amount of the non-detection area in the sensor film.
A reception apparatus comprising: a receiver which, in operation, is configured to receive a signal that includes a legacy preamble , a non-legacy preamble and a data field , wherein the non-legacy preamble comprises a first non-legacy signal, SIG-A, field and a second non-legacy signal, SIG-B, field , the SIG-B field comprising a first channel field that corresponds to a first frequency subband and a second channel field that corresponds to a second frequency subband different from the first frequency subband , wherein the SIG-A field comprises a SIG-B compression subfield and a number of SIG-B symbols subfield, wherein the number of SIG-B symbols subfield indicates a number of SIG-B symbols in the SIG-B field when the SIG-B compression subfield indicates that a full bandwidth containing the first frequency subband and the second frequency subband is not allocated for multi-user, MU, MIMO transmission, and the number of SIG-B symbols subfield indicates a number of MU MIMO users when the SIG-B compression subfield indicates that the full bandwidth is allocated for MU MIMO transmission; and a processor which, in operation, is configured to decode the received signal . a receiver which, in operation, is configured to receive a signal that includes a legacy preamble , a non-legacy preamble and a data field , wherein the non-legacy preamble comprises a first non-legacy signal, SIG-A, field and a second non-legacy signal, SIG-B, field , the SIG-B field comprising a first channel field that corresponds to a first frequency subband and a second channel field that corresponds to a second frequency subband different from the first frequency subband , wherein the SIG-A field comprises a SIG-B compression subfield and a number of SIG-B symbols subfield, wherein the number of SIG-B symbols subfield indicates a number of SIG-B symbols in the SIG-B field when the SIG-B compression subfield indicates that a full bandwidth containing the first frequency subband and the second frequency subband is not allocated for multi-user, MU, MIMO transmission, and the number of SIG-B symbols subfield indicates a number of MU MIMO users when the SIG-B compression subfield indicates that the full bandwidth is allocated for MU MIMO transmission; and a processor which, in operation, is configured to decode the received signal .
A noise reduction device, comprising: a main tube (MT) having a first pass-through area (A1) where a fluid enters the main tube; a side-branch (SB) connected to the main tube (MT), characterizing in that the main tube (MT) comprises a narrowed section (NS) having a second pass-through area (A2) that is at least 25% smaller than the first pass-through area (A1), the side-branch (SB) being connected to the narrowed section (NS) of the main tube (MT). a main tube (MT) having a first pass-through area (A1) where a fluid enters the main tube; a side-branch (SB) connected to the main tube (MT),
A method for producing a synthetic polyisoprene latex, comprising: a step of mixing a latex of synthetic polyisoprene (A) synthesized by use of a Ziegler type catalyst and a latex of synthetic polyisoprene (B) synthesized by use of an organic alkali metal catalyst at a weight ratio of "synthetic polyisoprene (A) : synthetic polyisoprene (B) = 10:90 to 90:10".
A rodent whose genome comprises a replacement of a rodent C3 gene sequence at an endogenous rodent C3 locus with a human C3 gene sequence to form a modified C3 gene, wherein the modified C3 gene comprises exon 1 of the endogenous rodent C3 gene and exon 2 through exon 41 of the human C3 gene, and wherein expression of the modified C3 gene is under control of rodent regulatory elements at the endogenous rodent C3 locus, wherein the rodent is a mouse or a rat.
An Internet of Things data transmission method, comprising: sending , by a terminal device, a first data request to a server, wherein the first data request is used to instruct the server to continuously send a plurality of data packets, the first data request comprises a quantity N of data packets that the terminal device is capable of continuously receiving and a time interval for sending two consecutive data packets, and N is greater than 1; and continuously receiving , by the terminal device, N data packets sent by the server, wherein the N data packets comprise at least one non-confirmable Constrained Application Protocol, NON, data packet, a sending time interval between two consecutive data packets in the N data packets is the time interval, and the NON data packet is a data packet indicating that the terminal device does not need to send a receiving response to the server, characterised in that : the last data packet in the N data packets is a confirmable Constrained Application Protocol, CON, data packet; and the method further comprises: sending , by the terminal device, a response message to the server after receiving the CON data packet, wherein the response message is used to notify the server that the terminal device is in a receiving state. sending , by a terminal device, a first data request to a server, wherein the first data request is used to instruct the server to continuously send a plurality of data packets, the first data request comprises a quantity N of data packets that the terminal device is capable of continuously receiving and a time interval for sending two consecutive data packets, and N is greater than 1; and continuously receiving , by the terminal device, N data packets sent by the server, wherein the N data packets comprise at least one non-confirmable Constrained Application Protocol, NON, data packet, a sending time interval between two consecutive data packets in the N data packets is the time interval, and the NON data packet is a data packet indicating that the terminal device does not need to send a receiving response to the server, characterised in that : the last data packet in the N data packets is a confirmable Constrained Application Protocol, CON, data packet; and the method further comprises: sending , by the terminal device, a response message to the server after receiving the CON data packet, wherein the response message is used to notify the server that the terminal device is in a receiving state.
A method of controlling the cooling rate of a melt pool of a powder bed, comprising: directing a first laser beam on the powder bed to form a melt pool ; coaxially combining a second laser beam with the first laser beam ; and offsetting a focus spot of the second laser beam with respect to the melt pool , wherein the second laser beam heats but does not melt powder within the focus spot; and being characterised by : scanning the first laser beam and the offset second laser beam relative to the powder bed by offsetting the focus spot of the second laser beam in a pattern around the melt pool, wherein the pattern comprises a wobble pattern , as shown in figure 4. directing a first laser beam on the powder bed to form a melt pool ; coaxially combining a second laser beam with the first laser beam ; and offsetting a focus spot of the second laser beam with respect to the melt pool , wherein the second laser beam heats but does not melt powder within the focus spot; and being characterised by : scanning the first laser beam and the offset second laser beam relative to the powder bed by offsetting the focus spot of the second laser beam in a pattern around the melt pool, wherein the pattern comprises a wobble pattern , as shown in figure 4.
A rock drilling rig having a carriage , driving equipment configured to move the carriage , at least one rock drilling machine , a first alternating current motor which is configured to drive the at least one rock drilling machine , a second alternating current motor which is configured to drive the driving equipment , a connection configured to supply the rock drilling rig from the electrical network of the mine during operations according to a work cycle at a work site, a DC intermediate circuit , to which electricity may be supplied from the electrical network of the mine via the connection and through a rectifier , a first inverter configured to supply the electrical energy of the DC intermediate circuit to the first alternating current motor , a second inverter configured to supply the electrical energy of the DC intermediate circuit to the second alternating current motor , an auxiliary energy source connected to the DC intermediate circuit , and a DC/DC converter between the auxiliary energy source and DC intermediate circuit configured to adapt the voltage level of the auxiliary energy source and to connect the auxiliary energy source to supply energy to the DC intermediate circuit , whereby auxiliary energy sources having different properties are connectable to the rock drilling rig, wherein the auxiliary energy source is connected to supply energy through the DC intermediate circuit to the first alternating current motor and to the second alternating current motor of the rock drilling rig - when the energy requirement of the rock drilling rig at the work site exceeds a certain limit while the rock drilling rig simultaneously also receives energy from the electrical network of the mine, and - -when the electrical network of the mine is not used for driving the rock drilling rig during transfer drives between work sites. - when the energy requirement of the rock drilling rig at the work site exceeds a certain limit while the rock drilling rig simultaneously also receives energy from the electrical network of the mine, and - -when the electrical network of the mine is not used for driving the rock drilling rig during transfer drives between work sites.