mhurhangee/ep-ind-claims huggingface dataset:
An assembly comprising: a turbine housing that comprises a bore, a wastegate seat and a wastegate passage that extends to the wastegate seat; a bushing disposed at least in part in the bore; a rotatable wastegate shaft received at least in part by the bushing; a wastegate plug that extends from the wastegate shaft; a control arm operatively coupled to the wastegate shaft; a control link operatively coupled to the control arm via a pin received by a bore that forms a joint between the control arm and the control link that comprises a radial clearance between the pin and the bore; an actuator operatively coupled to the control link to transition the wastegate plug between a closed state and an open state; a biasing element coupled to the control arm and to the control link characterized in that during transition of the wastegate plug from the closed state to the open state, the biasing element increases force applied to the joint such that the pin remains in contact with the bore to reduce noise. a turbine housing that comprises a bore, a wastegate seat and a wastegate passage that extends to the wastegate seat; a bushing disposed at least in part in the bore; a rotatable wastegate shaft received at least in part by the bushing; a wastegate plug that extends from the wastegate shaft; a control arm operatively coupled to the wastegate shaft; a control link operatively coupled to the control arm via a pin received by a bore that forms a joint between the control arm and the control link that comprises a radial clearance between the pin and the bore; an actuator operatively coupled to the control link to transition the wastegate plug between a closed state and an open state; a biasing element coupled to the control arm and to the control link characterized in that during transition of the wastegate plug from the closed state to the open state, the biasing element increases force applied to the joint such that the pin remains in contact with the bore to reduce noise.
A power saving method, characterized by comprising: acquiring use time of each function of a communication terminal in one sampling cycle; executing a statistical algorithm on the use time of each function of the communication terminal corresponding to predetermined time frames to separately obtain at least one most used time frame of each function of the communication terminal in the sampling cycle; and correspondingly activating each function of the communication terminal in the at least one most used time frame of each function. acquiring use time of each function of a communication terminal in one sampling cycle; executing a statistical algorithm on the use time of each function of the communication terminal corresponding to predetermined time frames to separately obtain at least one most used time frame of each function of the communication terminal in the sampling cycle; and correspondingly activating each function of the communication terminal in the at least one most used time frame of each function.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a first synchronization signal/physical broadcast channel, SS/PBCH, block in a first transmission window; receiving, from the base station, a second SS/PBCH block in a second transmission window, wherein each of the first transmission window and the second transmission window is set in units of half frames; identifying a quasi-co-located, QCL, relationship between the first SS/PBCH block and the second SS/PBCH block based on a first index associated with the first SS/PBCH block, a second index associated with the second SS/PBCH block and a value associated with a number of SS/PBCH blocks; and performing cell detection based on the first SS/PBCH block, the second SS/PBCH block, and the identified QCL relationship, wherein the identifying of the QCL relationship between the first SS/PBCH block and the second SS/PBCH block comprises: in case that a result of a modulo operation between the first index associated with the first SS/PBCH block and the value associated with the number of SS/PBCH blocks is same as a result of a modulo operation between the second index associated with the second SS/PBCH block and the value associated with the number of SS/PBCH blocks, determining the QCL relationship between the first SS/PBCH block and the second SS/PBCH block. receiving, from a base station, a first synchronization signal/physical broadcast channel, SS/PBCH, block in a first transmission window; receiving, from the base station, a second SS/PBCH block in a second transmission window, wherein each of the first transmission window and the second transmission window is set in units of half frames; identifying a quasi-co-located, QCL, relationship between the first SS/PBCH block and the second SS/PBCH block based on a first index associated with the first SS/PBCH block, a second index associated with the second SS/PBCH block and a value associated with a number of SS/PBCH blocks; and performing cell detection based on the first SS/PBCH block, the second SS/PBCH block, and the identified QCL relationship, wherein the identifying of the QCL relationship between the first SS/PBCH block and the second SS/PBCH block comprises: in case that a result of a modulo operation between the first index associated with the first SS/PBCH block and the value associated with the number of SS/PBCH blocks is same as a result of a modulo operation between the second index associated with the second SS/PBCH block and the value associated with the number of SS/PBCH blocks, determining the QCL relationship between the first SS/PBCH block and the second SS/PBCH block. in case that a result of a modulo operation between the first index associated with the first SS/PBCH block and the value associated with the number of SS/PBCH blocks is same as a result of a modulo operation between the second index associated with the second SS/PBCH block and the value associated with the number of SS/PBCH blocks, determining the QCL relationship between the first SS/PBCH block and the second SS/PBCH block.
A computer-implemented method for assigning a device fingerprint to a target device, comprising: acquiring (102; 202) first attributes of the target device, the first attributes including at least one browser plug-in; determining changes of the first attributes based on a plurality of state transition vectors over a period of time; determining change probabilities for the state transition vectors; comparing each of the first attributes with each of second attributes of at least one second device having a device fingerprint stored in a device library, the first attributes corresponding to the second attributes; determining a first state transition vector from the state transition vectors for each of the first attributes based on the comparison; giving a first change probability to each of the first attributes based on the determined first state transition vector; calculating (104; 212) a correlation value with respect to the first attributes of the target device and the second attributes of at least one second device, wherein the correlation value is calculated based on the first change probability; if the correlation value is greater than or equal to a pre-determined threshold value, assigning (108; 216) the device fingerprint of the at least one second device to the target device; and if the correlation value is smaller than the pre-determined threshold value, storing (110; 218) the first attributes of the target device to the device library and assigning a new device fingerprint to the target device. acquiring (102; 202) first attributes of the target device, the first attributes including at least one browser plug-in; determining changes of the first attributes based on a plurality of state transition vectors over a period of time; determining change probabilities for the state transition vectors; comparing each of the first attributes with each of second attributes of at least one second device having a device fingerprint stored in a device library, the first attributes corresponding to the second attributes; determining a first state transition vector from the state transition vectors for each of the first attributes based on the comparison; giving a first change probability to each of the first attributes based on the determined first state transition vector; calculating (104; 212) a correlation value with respect to the first attributes of the target device and the second attributes of at least one second device, wherein the correlation value is calculated based on the first change probability; if the correlation value is greater than or equal to a pre-determined threshold value, assigning (108; 216) the device fingerprint of the at least one second device to the target device; and if the correlation value is smaller than the pre-determined threshold value, storing (110; 218) the first attributes of the target device to the device library and assigning a new device fingerprint to the target device.
A screen printing machine that prints applying material on a substrate, comprising: a screen mask detachably mounted to a mask mounting area set in advance; a squeegee (91, 91A, 91B), arranged above the screen mask mounted to the mask mounting area, that reciprocates relative to the screen mask in a squeegee-movement direction set in advance; and a receptacle that catches applying material adhered to the squeegee (91, 91A, 91B), wherein the receptacle is installed at a location so that the screen mask is allowed to be attached and detached and so that the squeegee (91, 91A, 91B) can be moved to a position facing an upper portion of the receptacle, characterized in that the screen printing machine further comprising: a mounting frame that includes a frame main body having a surface on which the receptacle is mounted, a rail for moving the squeegee (91, 91A, 91B), and a base that supports the mounting frame and the rail independently, wherein the receptacle is formed of a magnetic body; and the mounting frame further includes a magnet for locking the receptacle. a screen mask detachably mounted to a mask mounting area set in advance; a squeegee (91, 91A, 91B), arranged above the screen mask mounted to the mask mounting area, that reciprocates relative to the screen mask in a squeegee-movement direction set in advance; and a receptacle that catches applying material adhered to the squeegee (91, 91A, 91B), wherein the receptacle is installed at a location so that the screen mask is allowed to be attached and detached and so that the squeegee (91, 91A, 91B) can be moved to a position facing an upper portion of the receptacle, characterized in that the screen printing machine further comprising: a mounting frame that includes a frame main body having a surface on which the receptacle is mounted, a rail for moving the squeegee (91, 91A, 91B), and a base that supports the mounting frame and the rail independently, wherein a mounting frame that includes a frame main body having a surface on which the receptacle is mounted, a rail for moving the squeegee (91, 91A, 91B), and a base that supports the mounting frame and the rail independently, wherein the receptacle is formed of a magnetic body; and the mounting frame further includes a magnet for locking the receptacle.
A razor cartridge, comprising: a frame defining a base, said frame having an opening defined in part by a composite guard having a leading guard surface and a cap having a trailing cap surface, said leading guard surface and said trailing cap surface cooperating to define a contact plane tangential thereto and extending across said opening; and at least three razor blades attached to said base, said razor blades being fixedly spaced; wherein the cutting edge of the razor blade closest to the leading guard surface has a cutting edge exposure relative to said contact plane that is positive; and wherein the cutting edge exposure of the cutting edges of the other razor blades reduce from said leading guard surface to said cap, whereby one or more of said blades has a cutting edge exposure that is negative or neutral wherein said composite guard includes an elastomeric guard bar having a skin contacting surface, and a rigid guard bar support defining said leading guard surface, characterised in that the rigid guard bar support is proximal to the cutting edge of the razor blade closest to the leading guard surface, and comprises the last point of skin contact before the blades, wherein the skin contacting surface of the elastomeric guard bar is higher than an uppermost surface of the rigid guard bar support. a frame defining a base, said frame having an opening defined in part by a composite guard having a leading guard surface and a cap having a trailing cap surface, said leading guard surface and said trailing cap surface cooperating to define a contact plane tangential thereto and extending across said opening; and at least three razor blades attached to said base, said razor blades being fixedly spaced; wherein the cutting edge of the razor blade closest to the leading guard surface has a cutting edge exposure relative to said contact plane that is positive; and wherein the cutting edge exposure of the cutting edges of the other razor blades reduce from said leading guard surface to said cap, whereby one or more of said blades has a cutting edge exposure that is negative or neutral wherein said composite guard includes an elastomeric guard bar having a skin contacting surface, and a rigid guard bar support defining said leading guard surface, characterised in that the rigid guard bar support is proximal to the cutting edge of the razor blade closest to the leading guard surface, and comprises the last point of skin contact before the blades, wherein the skin contacting surface of the elastomeric guard bar is higher than an uppermost surface of the rigid guard bar support.
A method of wireless communication, comprising the following steps performed by a multi-radio wireless device: actively communicating on a first radio access technology RAT as part of an end-to-end communication link; actively communicating on a second RAT as part of the end-to-end communication link; sending a message instructing a remote device on the second RAT to temporarily stop transmission, the message being sent at a time calculated to prevent transmission from the remote device from being received by the multi-radio wireless device during an uplink transmission of the first RAT in the end-to-end communication link in which the message comprises a CTS-to-Self message and in which the CTS-to-Self message is sent a guard time ahead of the uplink transmission of the first RAT; and wherein the sending is based on an indication of potential interference between uplink transmissions of the first RAT sent by the multi-radio wireless device and downlink communications of the second RAT received by the multi-radio wireless device. actively communicating on a first radio access technology RAT as part of an end-to-end communication link; actively communicating on a second RAT as part of the end-to-end communication link; sending a message instructing a remote device on the second RAT to temporarily stop transmission, the message being sent at a time calculated to prevent transmission from the remote device from being received by the multi-radio wireless device during an uplink transmission of the first RAT in the end-to-end communication link in which the message comprises a CTS-to-Self message and in which the CTS-to-Self message is sent a guard time ahead of the uplink transmission of the first RAT; and wherein the sending is based on an indication of potential interference between uplink transmissions of the first RAT sent by the multi-radio wireless device and downlink communications of the second RAT received by the multi-radio wireless device.
An air-conditioning apparatus comprising: a compressor; an outdoor heat exchanger; an indoor heat exchanger; a switching device, the switching device being provided closer to a discharge side of the compressor than the outdoor heat exchanger and provided closer to the discharge side of the compressor than the indoor heat exchanger, the compressor, the outdoor heat exchanger, the indoor heat exchanger, and the switching device being connected one another; a fan configured to deliver air toward the outdoor heat exchanger; a power unit configured to supply electric power to the fan; a fan input detector configured to detect a physical value correlated to the electric power supplied to the fan; and a controller configured to control the switching device to switch between a first operation in which the outdoor heat exchanger serves as an evaporator and a second operation in which the outdoor heat exchanger serves as a condenser, wherein the first operation is switched to the second operation when the physical value detected by the fan input detector is equal to or larger than a reference value, and characterized in that the controller is configured to adjust the reference value such that the reference value to be lower at a higher refrigerant temperature of a refrigerant flowing in the outdoor heat exchanger. a compressor; an outdoor heat exchanger; an indoor heat exchanger; a switching device, the switching device being provided closer to a discharge side of the compressor than the outdoor heat exchanger and provided closer to the discharge side of the compressor than the indoor heat exchanger, the compressor, the outdoor heat exchanger, the indoor heat exchanger, and the switching device being connected one another; a fan configured to deliver air toward the outdoor heat exchanger; a power unit configured to supply electric power to the fan; a fan input detector configured to detect a physical value correlated to the electric power supplied to the fan; and a controller configured to control the switching device to switch between a first operation in which the outdoor heat exchanger serves as an evaporator and a second operation in which the outdoor heat exchanger serves as a condenser, wherein the first operation is switched to the second operation when the physical value detected by the fan input detector is equal to or larger than a reference value, and characterized in that the controller is configured to adjust the reference value such that the reference value to be lower at a higher refrigerant temperature of a refrigerant flowing in the outdoor heat exchanger.
Anionic surfactant of the general formula or of the general formula or a mixture thereof, in which R is hydrogen or a linear or branched alkyl, alkenyl, alkylaryl or alkenylaryl group containing 5 to 25 carbon atoms, n is a number of 1 to 21 and m is a number of 0 to 20, the sum of n and m being less than 22, and X + is a charge-balancing cation.
A method for estimating a position of an emitter in a sample comprising - illuminating the sample with light at one or more sets of probe positions (P i), wherein the sample is illuminated at the probe positions (P i) with a light distribution having an intensity increase range adjacent to a minimum, - acquiring photons for the sets of probe positions (P i), - determining vectors of photon counts or sums of photon counts for the sets of probe positions (P i) from the acquired photons, and - estimating the position of the emitter from the vectors of photon counts or sums of photon counts, characterized in that the one or more sets of probe positions (P i) each comprise six or more probe positions (P i), which are arranged rotationally symmetric on a circle around a center, wherein the one or more sets of probe positions (P i) lacks a central probe position (P i), wherein the method further comprises determining a value representative of background noise from the vectors of photon counts or the sums of photon counts, wherein for determining the value representative of background noise, only sets of probe positions (P i) are evaluated, for which no photons from an emitter are detected, and wherein the method further comprises adapting an estimator in real-time using the value representative of background noise, wherein an expectancy value of the background noise is subtracted in a denominator of a normalized vector sum of the photon counts. - illuminating the sample with light at one or more sets of probe positions (P i), wherein the sample is illuminated at the probe positions (P i) with a light distribution having an intensity increase range adjacent to a minimum, - acquiring photons for the sets of probe positions (P i), - determining vectors of photon counts or sums of photon counts for the sets of probe positions (P i) from the acquired photons, and - estimating the position of the emitter from the vectors of photon counts or sums of photon counts, the one or more sets of probe positions (P i) each comprise six or more probe positions (P i), which are arranged rotationally symmetric on a circle around a center, wherein the one or more sets of probe positions (P i) lacks a central probe position (P i), wherein the method further comprises determining a value representative of background noise from the vectors of photon counts or the sums of photon counts, wherein for determining the value representative of background noise, only sets of probe positions (P i) are evaluated, for which no photons from an emitter are detected, and wherein the method further comprises adapting an estimator in real-time using the value representative of background noise, wherein an expectancy value of the background noise is subtracted in a denominator of a normalized vector sum of the photon counts.
Mould filling machine having a treatment station for the expanding shaping of plastic preforms into plastic containers in a hollow mould and filling the plastic containers with a product, wherein the mould filling machine comprises: a device for blow moulding for the at least partial production of the plastic containers by means of CO 2; and a device for filling the at least partially produced plastic containers with the product, characterised in that the mould filling machine further comprises: means for recycling the CO 2 used for blow moulding, and a device for carbonating the product filled into the at least partially produced or finished plastic containers, with the help of the recycled CO 2. a device for blow moulding for the at least partial production of the plastic containers by means of CO 2; and a device for filling the at least partially produced plastic containers with the product, characterised in that the mould filling machine further comprises: means for recycling the CO 2 used for blow moulding, and a device for carbonating the product filled into the at least partially produced or finished plastic containers, with the help of the recycled CO 2. means for recycling the CO 2 used for blow moulding, and a device for carbonating the product filled into the at least partially produced or finished plastic containers, with the help of the recycled CO 2.
A high-formability and super-high-strength steel plate, consisting of the following chemical components, based on weight percentages: C: 0.18-0.22wt% Si: 1.4-1.8wt% Mn: 1.8-2.3wt% P≤0.015wt% S≤0.012wt% Al: 0.03-0.06wt% N≤0.008wt% the balance of Fe and unavoidable impurities; wherein the steel plate has a structure at room temperature of 10%-30% ferrite + 60-80% martensite + 5-15% residual austenite; a yield strength of 600-900MPa, a tensile strength of 980-1150MPa, and an elongation of 17-25%. C: 0.18-0.22wt% Si: 1.4-1.8wt% Mn: 1.8-2.3wt% P≤0.015wt% S≤0.012wt% Al: 0.03-0.06wt% N≤0.008wt% the balance of Fe and unavoidable impurities; wherein the steel plate has a structure at room temperature of 10%-30% ferrite + 60-80% martensite + 5-15% residual austenite; a yield strength of 600-900MPa, a tensile strength of 980-1150MPa, and an elongation of 17-25%.