mhurhangee/ep-ind-claims huggingface dataset:
A cleaning position checking system comprising: a cleaning position checking device, provided between a fluid supply section and a nozzle having a hole through which a fluid supplied from the fluid supply section is ejected so that a to be cleaned object is cleaned with the fluid, the cleaning position checking device being for checking a position which the fluid to be ejected is to reach, the cleaning position checking device including: a joint member having a tubular shape, the joint member having (i) an inlet part through which the fluid flows in the joint member and (ii) an outlet part through which the fluid flows out of the joint member; and a holder having (a) a first opening through which a light source section is provided and (b) a light source section provided space therein in which the light source section is held so as to emit light toward the outlet part; and the light source section which is provided in the light source section provided space and emits light of a plurality of different colors; and characterised by a control section which controls the light source section to emit light depending on a pressure in the nozzle and to change colors of the light depending on the pressure in the nozzle. a cleaning position checking device, provided between a fluid supply section and a nozzle having a hole through which a fluid supplied from the fluid supply section is ejected so that a to be cleaned object is cleaned with the fluid, the cleaning position checking device being for checking a position which the fluid to be ejected is to reach, the cleaning position checking device including: a joint member having a tubular shape, the joint member having (i) an inlet part through which the fluid flows in the joint member and (ii) an outlet part through which the fluid flows out of the joint member; and a holder having (a) a first opening through which a light source section is provided and (b) a light source section provided space therein in which the light source section is held so as to emit light toward the outlet part; and a joint member having a tubular shape, the joint member having (i) an inlet part through which the fluid flows in the joint member and (ii) an outlet part through which the fluid flows out of the joint member; and a holder having (a) a first opening through which a light source section is provided and (b) a light source section provided space therein in which the light source section is held so as to emit light toward the outlet part; and the light source section which is provided in the light source section provided space and emits light of a plurality of different colors; and characterised by a control section which controls the light source section to emit light depending on a pressure in the nozzle and to change colors of the light depending on the pressure in the nozzle.
A method of converting α-ketoisovalerate to isobutyraldehyde comprising: a. providing a polypeptide wherein said polypeptide comprises: (i) at least 80% identity to SEQ ID NO: 52 or 61, or an active fragment thereof; and (ii) α-ketoisovalerate decarboxylase activity, a specificity ratio for α-ketoisovalerate to pyruvate greater than 1, and thiamine diphosphate cofactor activation constant (K c) of 20 μM or less; and b. contacting said polypeptide with α-ketoisovalerate under conditions wherein isobutyraldehyde is produced. a. providing a polypeptide wherein said polypeptide comprises: (i) at least 80% identity to SEQ ID NO: 52 or 61, or an active fragment thereof; and (ii) α-ketoisovalerate decarboxylase activity, a specificity ratio for α-ketoisovalerate to pyruvate greater than 1, and thiamine diphosphate cofactor activation constant (K c) of 20 μM or less; and (i) at least 80% identity to SEQ ID NO: 52 or 61, or an active fragment thereof; and (ii) α-ketoisovalerate decarboxylase activity, a specificity ratio for α-ketoisovalerate to pyruvate greater than 1, and thiamine diphosphate cofactor activation constant (K c) of 20 μM or less; and b. contacting said polypeptide with α-ketoisovalerate under conditions wherein isobutyraldehyde is produced.
A method of determining normal or faulty operation of a particle filter of a vehicle exhaust system by periodic diagnostic check, wherein said method is applied to determining loss of filter matrix in the particle filter by reference to real time pressure drop across the filter and gas flow through the filter, the method comprising: running a first diagnostic check to determine a first reference value (R f) indicative of whether operation is faulty or not faulty by reference to a first predetermined threshold, said first reference value being determined by reference to minimum pressure drop across a normal filter (Pmin) and minimum pressure drop across a filter at a matrix loss threshold (Pmin fault), running a second diagnostic check to determine a second reference value (Rn) indicative of whether operation is normal or not normal by reference to a second predetermined threshold, said second reference value being determined by reference to minimum pressure drop across a filter at a matrix loss threshold (Pmin fault) and maximum pressure drop across said filter at a matrix loss threshold (Pmax fault), and in the event of a failure to determine either faulty operation or normal operation, requesting a regeneration of the particle filter and running the first and the second diagnostic checks after regeneration of the particle filter. running a first diagnostic check to determine a first reference value (R f) indicative of whether operation is faulty or not faulty by reference to a first predetermined threshold, said first reference value being determined by reference to minimum pressure drop across a normal filter (Pmin) and minimum pressure drop across a filter at a matrix loss threshold (Pmin fault), running a second diagnostic check to determine a second reference value (Rn) indicative of whether operation is normal or not normal by reference to a second predetermined threshold, said second reference value being determined by reference to minimum pressure drop across a filter at a matrix loss threshold (Pmin fault) and maximum pressure drop across said filter at a matrix loss threshold (Pmax fault), and in the event of a failure to determine either faulty operation or normal operation, requesting a regeneration of the particle filter and running the first and the second diagnostic checks after regeneration of the particle filter.
Method for processing a modular hybrid component, said component comprising a first part made of a first material, a second part made of a second material, which is different from said first material with regard to its electromagnetic and/or thermal properties, and a brazing or soldering joint or a field sensitive mineral cement connecting said first and second part, wherein said modular hybrid component is exposed to an alternating electromagnetic field, whereby both parts (11,12) are heated up differently, and the brazing or soldering joint or field sensitive mineral cement between said first part and said second part is affected by said heating action, characterized in that said heating process leads to at least a softening or a melting of the brazing or soldering joint or the filed sensitive material between said two parts (11,12), such that the two parts can be separated.
A transmission monitoring method, comprising: in a case that an input port of a network node receives M frames, counting the number N of frames sent by an output port of the network node corresponding to the received M frames; and in a case that M is different from N, determining that frame loss exists in the network node;, characterized in that the step of counting the number N of frames sent by the output port of the network node corresponding to the received M frames in a case that the input port of the network node receives M frames comprises: measuring the number of received frames of frames received by the input port, and sending the number of received frames to the output port; when the output port receives the number of received frames, measuring a number of transmitted frames of frames sent currently by the output port; and calculating a first difference value of the number of received frames received by the output port at this time and the number of received frames received by the output port last time as the M, and calculating a second difference value of the number of transmitted frames measured by the output port at this time and the number of transmitted frames measured by the output port last time as the N; wherein the M and the N are positive integers. in a case that an input port of a network node receives M frames, counting the number N of frames sent by an output port of the network node corresponding to the received M frames; and in a case that M is different from N, determining that frame loss exists in the network node;, characterized in that measuring the number of received frames of frames received by the input port, and sending the number of received frames to the output port; when the output port receives the number of received frames, measuring a number of transmitted frames of frames sent currently by the output port; and calculating a first difference value of the number of received frames received by the output port at this time and the number of received frames received by the output port last time as the M, and calculating a second difference value of the number of transmitted frames measured by the output port at this time and the number of transmitted frames measured by the output port last time as the N;
A method for green-to-fired shrinkage control in honeycomb ceramic article manufacture, comprising: determining the green-to-fired shrinkage of a green body when fired to a fired ceramic article, wherein the green body is prepared from a ceramic source batch mixture having the at least one fine particle graphite pore former having a measured particle size distribution; comparing the determined green-to-fired shrinkage of the resulting fired ceramic article with an expected shrinkage in the fired ceramic, wherein the expected shrinkage of the fired ceramic has a positive deviation or negative deviation of less than 0.15 relative%; adjusting the weight % of the at least one fine particle graphite pore former having the measured particle size distribution in the ceramic source batch mixture if the determined green-to-fired shrinkage is greater than the expected shrinkage; and firing the green body to form the honeycomb ceramic article having controlled shrinkage. determining the green-to-fired shrinkage of a green body when fired to a fired ceramic article, wherein the green body is prepared from a ceramic source batch mixture having the at least one fine particle graphite pore former having a measured particle size distribution; comparing the determined green-to-fired shrinkage of the resulting fired ceramic article with an expected shrinkage in the fired ceramic, wherein the expected shrinkage of the fired ceramic has a positive deviation or negative deviation of less than 0.15 relative%; adjusting the weight % of the at least one fine particle graphite pore former having the measured particle size distribution in the ceramic source batch mixture if the determined green-to-fired shrinkage is greater than the expected shrinkage; and firing the green body to form the honeycomb ceramic article having controlled shrinkage.
An antibody, or antigen-binding fragment thereof, directed against PRAME antigen that binds specifically PRAME 123-132 (SEQ ID NO:1) or PRAME 276-286 (SEQ ID NO:2).
A piece of furniture having a first piece attached to second and third pieces being perpendicular to the first piece and where two opposing edges of the first piece are attached to one of the second and third pieces each, wherein the edges of the first piece are received in a groove of each of the second and third pieces, that the first piece is perpendicular to the second and third pieces and that the second and third pieces are placed parallel to each other characterized in that a number of protruding parts are arranged at two opposing edges of the first piece, a number of protruding parts (20, 23) are arranged at an edge (19, 22) at an end of each of the second and third pieces and that the vertical dimension of each protruding part of the first piece is smaller than the vertical distance between two protruding parts (20, 23) of the second and third pieces.
Heat exchanger arrangement, especially for a vehicle heater, comprising a heat exchanger housing with a heat transfer medium inlet opening and with a heat transfer medium outlet opening, further comprising, in association with at least one opening out of the heat transfer medium inlet opening and the heat transfer medium outlet opening, a connecting piece (26, 28), which is inserted or can be inserted into the opening, wherein at least one housing locking element meshing recess (34, 36, 38, 40) is provided in association with the at least one connecting piece (26, 28) in the heat exchanger housing and at least one connecting piece locking element meshing recess is provided in the connecting piece (26, 28), and wherein a locking element locking the connecting piece (26, 28) on the heat exchanger housing is positioned or can be positioned such that it meshes with the at least one housing locking element meshing recess (34, 36, 38, 40) and with the at least one connecting piece locking element meshing recess, wherein the connecting piece, which is inserted or can be inserted into the heat transfer medium inlet opening, and the connecting piece, which is inserted or can be inserted into the heat transfer medium outlet opening, are locked or can be locked at the heat exchanger housing by a common locking element, wherein the locking element has, in association with each connecting piece (26, 28), a connecting piece locking area (46, 48) and a housing locking area for locking the locking element in relation to the heat exchanger housing in a locked state locking at least one connecting piece (26, 28) at the heat exchanger housing, characterized in that the housing locking area has an essentially U-shaped configuration connecting the two connecting piece locking areas (46, 48) to one another, and that a locking projection, which engages behind the housing locking area in the locked state, is provided on the heat exchanger housing.
A method for dynamically implementing improved decision making as to whether to enter an idle core or CPU into a low power mode, in a multi-core system-on-a-chip, SoC, in a portable computing device, PCD, the method comprising: identifying a core of the multi-core SoC entering an idle state; calculating, for a low power mode of the core, an entry power cost of the core and an exit power cost of the core; calculating a working set size for a cache associated with the core wherein calculating comprises determining an average number of cache lines retrieved by the cache during a plurality of sampling periods including counting with an Access Counter coupled to the cache, the number of cache lines retrieved by the cache during the plurality of sampling periods; calculating, using the working set size for the cache, a latency for the cache to exit the low power mode of the core; and determining if the low power mode for the core results in a power saving over an active mode based in part on the entry power cost of the core, the exit power cost of the core and the latency for the cache to exit the low power mode. identifying a core of the multi-core SoC entering an idle state; calculating, for a low power mode of the core, an entry power cost of the core and an exit power cost of the core; calculating a working set size for a cache associated with the core wherein calculating comprises determining an average number of cache lines retrieved by the cache during a plurality of sampling periods including counting with an Access Counter coupled to the cache, the number of cache lines retrieved by the cache during the plurality of sampling periods; calculating, using the working set size for the cache, a latency for the cache to exit the low power mode of the core; and determining if the low power mode for the core results in a power saving over an active mode based in part on the entry power cost of the core, the exit power cost of the core and the latency for the cache to exit the low power mode.
A robotic work tool system for defining a working area perimeter surrounding a working area in which a robotic work tool is subsequently intended to operate, the robotic work tool system comprising: a boundary definition unit comprising at least one position unit configured to receive position data; at least one controller for controlling operation of the boundary definition unit, the at least one controller being configured to: receive, from the at least one position unit, position data while the boundary definition unit is moved a portion of a lap around the working area to define a preliminary working area perimeter; and wherein the robotic work tool system is characterized in that the at least one controller is further configured to identify, based on the received position data, a geometry of a part of the preliminary working area perimeter approximately corresponding to a predefined geometry; and adjust the identified geometry of the preliminary working area perimeter to define an adjusted working area perimeter, wherein the identified geometry of the preliminary working area perimeter is adjusted to correspond to the predefined geometry. a boundary definition unit comprising at least one position unit configured to receive position data; at least one controller for controlling operation of the boundary definition unit, the at least one controller being configured to: receive, from the at least one position unit, position data while the boundary definition unit is moved a portion of a lap around the working area to define a preliminary working area perimeter; and wherein the robotic work tool system is characterized in that the at least one controller is further configured to identify, based on the received position data, a geometry of a part of the preliminary working area perimeter approximately corresponding to a predefined geometry; and adjust the identified geometry of the preliminary working area perimeter to define an adjusted working area perimeter, wherein the identified geometry of the preliminary working area perimeter is adjusted to correspond to the predefined geometry. receive, from the at least one position unit, position data while the boundary definition unit is moved a portion of a lap around the working area to define a preliminary working area perimeter; and wherein the robotic work tool system is characterized in that the at least one controller is further configured to identify, based on the received position data, a geometry of a part of the preliminary working area perimeter approximately corresponding to a predefined geometry; and adjust the identified geometry of the preliminary working area perimeter to define an adjusted working area perimeter, wherein the identified geometry of the preliminary working area perimeter is adjusted to correspond to the predefined geometry.
An on screen display information generation camera comprising: an image sensor configured to receive an image signal and generate an image therefrom; a controller configured to extract basic information for generating first on screen display information from the image; an on screen display information generator configured to generate the first on screen display information based on the basic information extracted by the controller; and a communicator configured to separately transmit data of the first on screen display information and the image to a first on screen display information synthesis terminal, wherein the communicator is further configured to receive second on screen display information from the first on screen display information synthesis terminal and to receive another second on screen display information from a second on screen display information synthesis terminal (20b to 20d), the communicator is further configured to transmit the another second on screen display information to the first on screen display information synthesis terminal. an image sensor configured to receive an image signal and generate an image therefrom; a controller configured to extract basic information for generating first on screen display information from the image; an on screen display information generator configured to generate the first on screen display information based on the basic information extracted by the controller; and a communicator configured to separately transmit data of the first on screen display information and the image to a first on screen display information synthesis terminal, wherein the communicator is further configured to receive second on screen display information from the first on screen display information synthesis terminal and to receive another second on screen display information from a second on screen display information synthesis terminal (20b to 20d), the communicator is further configured to transmit the another second on screen display information to the first on screen display information synthesis terminal.
A computing device configured to compute a function of one or more inputs, - the device comprising a storage device storing one or more look-up tables used in the computation of said function, the look-up tables mapping input values to output values, characterised by the look-up table being constructed with respect to the first error correcting code, a second error correcting code, a first error threshold and a second error threshold, such that any two input values that each differ in at most a first error threshold number of bits from a same code word of the first error correcting code, are mapped to respective output values that each differ in at most a second error threshold number of bits from a same code word of the second error correcting code, wherein - the first error threshold is at least 1 and at most the error correcting capability of the first error correcting code, and the second error threshold is at most the error correcting capability of the second error correcting code. - the device comprising a storage device storing one or more look-up tables used in the computation of said function, the look-up tables mapping input values to output values, characterised by the look-up table being constructed with respect to the first error correcting code, a second error correcting code, a first error threshold and a second error threshold, such that any two input values that each differ in at most a first error threshold number of bits from a same code word of the first error correcting code, are mapped to respective output values that each differ in at most a second error threshold number of bits from a same code word of the second error correcting code, wherein - the first error threshold is at least 1 and at most the error correcting capability of the first error correcting code, and the second error threshold is at most the error correcting capability of the second error correcting code.