mhurhangee/ep-ind-claims huggingface dataset:
A bread slicing device for slicing loaves with a plurality of reciprocating bread slicer cutting blades (40; 60), said device comprising: - a frame, which is provided with a support for the loaves, which support defines a path for the loaves through the device, - cutting-blade attachment and tensioning means (2,4), which are adapted to hold each blade at axial ends thereof in an arrangement wherein said blades (40;60) are parallel to and spaced from one another and wherein each blade is held in axial tension, at least during the cutting operation of the device, - drive means adapted to cause a reciprocating movement of the plurality of cutting blades with respect to the support means for the loaves, wherein a plurality of reciprocating bread slicer cutting blades (40;60) are held by said cutting-blade attachment and tensioning means, wherein each cutting blade (40; 60) has an elongated, strip shaped and monolithic cutting blade body that is made of resilient steel material, said cutting blade body having axial ends, as well as a front edge (40a;60a), a rear edge (40b;60b) opposite the front edge, and parallel, opposite side surfaces (40c;60c), the distance between the opposite side surfaces (40c; 60c) defining the thickness of the blade body, the front portion of the blade body (40;60) being machined to a cutting section with a multitude of cutting formations having peaks and valleys for cutting the loaf, said peaks lying on an imaginary peak line of the blade body, the blade body having a securing portion (41,42; 61,62) at each axial end of the blade body, which securing portion is adapted to secure the cutting blade with respect to the cutting blade attachment and tensioning means of the device, characterized in that - over at least a part of the length of the cutting section - the width of the cutting blade body (40; 60), that is measured in said part between the peak line on the one hand and the rear edge (40b; 60b) of the blade body on the other hand, is reduced at least 25% with respect to the greatest width of each of the securing portions (41, 42; 61, 62) of the cutting blade body. - a frame, which is provided with a support for the loaves, which support defines a path for the loaves through the device, - cutting-blade attachment and tensioning means (2,4), which are adapted to hold each blade at axial ends thereof in an arrangement wherein said blades (40;60) are parallel to and spaced from one another and wherein each blade is held in axial tension, at least during the cutting operation of the device, - drive means adapted to cause a reciprocating movement of the plurality of cutting blades with respect to the support means for the loaves, - over at least a part of the length of the cutting section - the width of the cutting blade body (40; 60), that is measured in said part between the peak line on the one hand and the rear edge (40b; 60b) of the blade body on the other hand, is reduced at least 25% with respect to the greatest width of each of the securing portions (41, 42; 61, 62) of the cutting blade body.
Inhalation system comprising an inhalation device and a flowmeter that comprises a flow chamber, a resistor body and a flow indicator, wherein said flow chamber comprises an inlet opening that can be actively connected to the surroundings, an outlet opening that can be actively connected to an interior of the inhalation device, and a flow resistance device, said inhalation system being configured to guide supply air through the inlet opening into the flow chamber, through the outlet opening out of the flow chamber and into the interior of the inhalation device, said resistor body being configured to be able to assume different positions in the flow chamber, and said flow indicator being configured to indicate a position of the resistor body in the flow chamber, characterised in that the inhalation system has at a location of the airway a narrowing of the cross-section which, in order to increase the inhalation resistance, can be influenced such that different cross-sections can be set, and in that (a) the flow chamber has a cross section which increases in the opening direction and in the direction of flow or (b) the inhalation system has a spring which is configured to exert a force on the resistor body, or (c) the inhalation system has a magnet which is configured to exert a force on the resistor body. (a) the flow chamber has a cross section which increases in the opening direction and in the direction of flow or (b) the inhalation system has a spring which is configured to exert a force on the resistor body, or (c) the inhalation system has a magnet which is configured to exert a force on the resistor body.
A slow feeder comprising; a container for, in use, containing food for an animal, the container having a side wall through which a slot is defined; a feeding restrictor for, in use, resting on top of the food; and a retaining element which is movably engageable with an outer portion of the container; characterised in that the feeding restrictor is removably couplable to the retaining element. a container for, in use, containing food for an animal, the container having a side wall through which a slot is defined; a feeding restrictor for, in use, resting on top of the food; and a retaining element which is movably engageable with an outer portion of the container; characterised in that the feeding restrictor is removably couplable to the retaining element.
A control apparatus of a stitch imaging system for generating a stitched image based on radiation emitted to a plurality of radiographic imaging means (102a, 102b, 102c) simultaneously, the control apparatus comprising: a first communication circuit configured to communicate with the plurality of radiographic imaging means including a first radiographic means and a second radiographic means, wherein the plurality of radiographic imaging means (102a, 102b, 102c) each includes: a radiation sensor configured to acquire a radiographic image signal or radiographic image signals by detecting radiation; a readout circuit configured to read out the radiographic image signal(s), and a second communication circuit (160, 180) configured to transmit a digital radiographic image based on the radiographic image signal(s), wherein the first communication circuit of the control apparatus is arranged to transmit a specific signal for requesting the digital radiographic image to the second radiographic imaging following completion of reception of first to fourth reduced images of the digital radiographic image from the second communication circuit of the first radiographic imaging means. a first communication circuit configured to communicate with the plurality of radiographic imaging means including a first radiographic means and a second radiographic means, wherein the plurality of radiographic imaging means (102a, 102b, 102c) each includes: a radiation sensor configured to acquire a radiographic image signal or radiographic image signals by detecting radiation; a readout circuit configured to read out the radiographic image signal(s), and a second communication circuit (160, 180) configured to transmit a digital radiographic image based on the radiographic image signal(s), a radiation sensor configured to acquire a radiographic image signal or radiographic image signals by detecting radiation; a readout circuit configured to read out the radiographic image signal(s), and a second communication circuit (160, 180) configured to transmit a digital radiographic image based on the radiographic image signal(s), wherein the first communication circuit of the control apparatus is arranged to transmit a specific signal for requesting the digital radiographic image to the second radiographic imaging following completion of reception of first to fourth reduced images of the digital radiographic image from the second communication circuit of the first radiographic imaging means.
Epoxy resin composition for a printed wiring board, comprising an epoxy resin, a phenol novolac resin and a curing accelerator, characterized in that said epoxy resin comprises an epoxy (a) and an epoxy (b), wherein the epoxy (a) is a brominated epoxy resin, obtainable by reacting a bisphenol A epoxy resin with tetrabromobisphenol A, said brominated epoxy resin having an epoxy equivalent of 350 g/eq to 470 g/eq and containing an n=0 component in a ratio of 20% to 35% in terms of area percentage in a GPC chart; and the epoxy (b) is one or more of bifunctional epoxy resins, obtainable by reacting epichlorohydrin with any one selected from the group consisting of bisphenol A, bisphenol F and tetrabromobisphenol A, said bifunctional epoxy resins having an n=0 component in a content of 60% or higher in terms of area percentage in a GPC chart; said epoxy (a) and epoxy (b) are contained in total in an amount of 93% to 100% by weight based on the total weight of the epoxy resin; said epoxy (a) is contained in an amount of 75% to 97% by weight, based on the total weight of the epoxy resin; and said epoxy resin has a bromine content of 18% to 30% by weight, based on the total weight of the epoxy resin.
A system for airborne replacement of modular lighting luminaire, said system comprising a lighting luminaire comprising a lighting module and a socket module configured to be releasably connected to each other, wherein: - the socket module comprises a socket configured to be attached to a luminaire support and a receiving part configured to be received in a receiving space of the lighting module and an electric contact configured to be connected to a source of electric current; - the lighting module comprises an elongate housing having an upper side and a lower side and; a front portion with a light source and a rear portion with the receiving space for releasably receiving the receiving part of the socket module thereby connecting the lighting module with the socket module and an electrical contact connected to the light source and wherein; - the lighting module comprises a releasable locking means (240.1, 240.2), arranged in the housing for releasably locking the lighting module to the socket module; characterized in that the system further comprises; an unmanned aerial vehicle configured to be controlled remotely and comprising an engagement means (530.1, 530.2) configured to engage the lighting module such that the unmanned aerial vehicle may disconnect the lighting module from the socket module or connect the lighting module with the socket module, and in that the engagement means (530.1, 530.2) of the unmanned aerial vehicle is configured to release the locking means (240.1, 240.2) from locking engagement with the socket module. - the socket module comprises a socket configured to be attached to a luminaire support and a receiving part configured to be received in a receiving space of the lighting module and an electric contact configured to be connected to a source of electric current; - the lighting module comprises an elongate housing having an upper side and a lower side and; a front portion with a light source and a rear portion with the receiving space for releasably receiving the receiving part of the socket module thereby connecting the lighting module with the socket module and an electrical contact connected to the light source and wherein; - the lighting module comprises a releasable locking means (240.1, 240.2), arranged in the housing for releasably locking the lighting module to the socket module;
A system for performing semantic join operations on data in different representations, said system comprising: a memory area associated with a computing device, said memory area storing a plurality of tables having columns of values; and a processor programmed to: receive a request to perform a semantic join operation on at least two of the tables stored in the memory area; in response to the received request, identify pairs of values from the at least two tables, the pairs of values including one value from a column in a first one of the tables and one value from a column in a second one of the tables; determine, based on historical co-occurrence data, statistical co-occurrence scores for the identified pairs of values; infer a join relationship between the at least two tables using the statistical co-occurrence scores; output a bridge table based on the inferred join relationship; and perform a semantic join of the at least two of the tables using the bridge table, wherein the processor is programmed to infer the join relationship by generating a maximum aggregate correlation score among all pairs of values, wherein the join relationship is automatically inferred if the maximum aggregate correlation score is above a threshold. a memory area associated with a computing device, said memory area storing a plurality of tables having columns of values; and a processor programmed to: receive a request to perform a semantic join operation on at least two of the tables stored in the memory area; in response to the received request, identify pairs of values from the at least two tables, the pairs of values including one value from a column in a first one of the tables and one value from a column in a second one of the tables; determine, based on historical co-occurrence data, statistical co-occurrence scores for the identified pairs of values; infer a join relationship between the at least two tables using the statistical co-occurrence scores; output a bridge table based on the inferred join relationship; and perform a semantic join of the at least two of the tables using the bridge table, receive a request to perform a semantic join operation on at least two of the tables stored in the memory area; in response to the received request, identify pairs of values from the at least two tables, the pairs of values including one value from a column in a first one of the tables and one value from a column in a second one of the tables; determine, based on historical co-occurrence data, statistical co-occurrence scores for the identified pairs of values; infer a join relationship between the at least two tables using the statistical co-occurrence scores; output a bridge table based on the inferred join relationship; and perform a semantic join of the at least two of the tables using the bridge table,
Method for reducing the noise emission of a transformer, the transformer tank of which is filled with a liquid and the tank wall of which vibrates during operation, characterised by the following sequence of method steps: a.) detecting natural vibration values of the tank wall for at least one excitation frequency; b.) determining at least two eigenforms (3,4,30,40,41,50,51), from which the vibration of the tank wall is composed at an excitation frequency, by means of computer-aided processing of the natural vibration values, wherein a subtraction of the at least two eigenforms is performed and difference areas (100,200,400,500) of the tank wall are determined on the tank wall by means of computer-aided superimposition; c.) arranging at least one vibration loading device in at least one of these difference areas; d.) activating the at least one vibration loading device by means of a control device in order to counteract the vibration of the tank wall. a.) detecting natural vibration values of the tank wall for at least one excitation frequency; b.) determining at least two eigenforms (3,4,30,40,41,50,51), from which the vibration of the tank wall is composed at an excitation frequency, by means of computer-aided processing of the natural vibration values, wherein a subtraction of the at least two eigenforms is performed and difference areas (100,200,400,500) of the tank wall are determined on the tank wall by means of computer-aided superimposition; c.) arranging at least one vibration loading device in at least one of these difference areas; d.) activating the at least one vibration loading device by means of a control device in order to counteract the vibration of the tank wall.
A method for wireless communication at a user equipment, UE, comprising: determining a set of scheduled synchronization signal transmission times; selecting at least one candidate beam from a set of candidate beams for a dynamic measurement during one of a first subset of the set of scheduled synchronization signal transmission times, wherein the first subset of the set of scheduled synchronization signal transmission times is allocated for dynamic measurement, and wherein the measurement is dynamic in that it is performed on the selected at least one candidate beam and wherein the selection is based on a metric function; performing a measure procedure on the at least one candidate beam during the one of the first subset of scheduled synchronization signal transmission times; and transmitting at least one measurement report corresponding to the measure procedure performed on the at least one candidate beam. determining a set of scheduled synchronization signal transmission times; selecting at least one candidate beam from a set of candidate beams for a dynamic measurement during one of a first subset of the set of scheduled synchronization signal transmission times, wherein the first subset of the set of scheduled synchronization signal transmission times is allocated for dynamic measurement, and wherein the measurement is dynamic in that it is performed on the selected at least one candidate beam and wherein the selection is based on a metric function; performing a measure procedure on the at least one candidate beam during the one of the first subset of scheduled synchronization signal transmission times; and transmitting at least one measurement report corresponding to the measure procedure performed on the at least one candidate beam.
A computer-implemented method for generating a treatment plan specifying an irradiation of a patient, the method comprising: a dose inference stage, including using a model to infer a spatial dose from patient data; a dose mimicking stage, including executing a robust optimization process to generate a deliverable treatment plan which is consistent with the inferred spatial dose, wherein the robust optimization considers a plurality of scenarios relating to patient data uncertainty. a dose inference stage, including using a model to infer a spatial dose from patient data; a dose mimicking stage, including executing a robust optimization process to generate a deliverable treatment plan which is consistent with the inferred spatial dose, wherein the robust optimization considers a plurality of scenarios relating to patient data uncertainty.
A method in a network node comprising a gNB-Distributed Unit, DU, logical node (1015, 2010) and a gNB-Central Unit, CU, logical node (1020, 2015) for determining admission of a user equipment, UE,, the method comprising: the gNB-DU (1015, 2010) receiving a connection request from a UE; in response to a determination that the gNB-DU (1015, 2010) is not able to serve the UE, sending an initial uplink radio resource control, UL RRC, message that does not include a configuration for signaling radio bearer 1, SRB1, from the gNB-DU (1015, 2010) to the gNB-CU (1020, 2015); in response to receiving, at the gNB-CU (1020, 2015), the UL RRC message that does not include the configuration for SRB1, responding to the gNB-DU (1015, 2010) with a radio resource control, RRC, ConnectionReject message; and transmitting the RRC ConnectionReject message from the gNB-DU (1015, 2010) to the UE to reject the UE. the gNB-DU (1015, 2010) receiving a connection request from a UE; in response to a determination that the gNB-DU (1015, 2010) is not able to serve the UE, sending an initial uplink radio resource control, UL RRC, message that does not include a configuration for signaling radio bearer 1, SRB1, from the gNB-DU (1015, 2010) to the gNB-CU (1020, 2015); in response to receiving, at the gNB-CU (1020, 2015), the UL RRC message that does not include the configuration for SRB1, responding to the gNB-DU (1015, 2010) with a radio resource control, RRC, ConnectionReject message; and transmitting the RRC ConnectionReject message from the gNB-DU (1015, 2010) to the UE to reject the UE.
A method performed by a processor of a portable electronic device having an accelerometer, the method comprising: with the processor, acquiring a sensor reading from the accelerometer, the sensor reading containing data of a proper acceleration vector in two or three dimensions of the portable electronic device; calibrating the sensor reading based on a current value of gravitational acceleration of the portable electronic device to obtain a net acceleration; determining a position change of the portable electronic device based on the acquired sensor reading by integrating the net acceleration to obtain a velocity and subsequently integrating the obtained velocity with an exponential decay function to obtain a position change vector; and transmitting the determined position change as a user input signal to a computer, the user input signal being used by the computer to control a cursor position (119a, 119b) on a display of the computer. acquiring a sensor reading from the accelerometer, the sensor reading containing data of a proper acceleration vector in two or three dimensions of the portable electronic device; calibrating the sensor reading based on a current value of gravitational acceleration of the portable electronic device to obtain a net acceleration; determining a position change of the portable electronic device based on the acquired sensor reading by integrating the net acceleration to obtain a velocity and subsequently integrating the obtained velocity with an exponential decay function to obtain a position change vector; and transmitting the determined position change as a user input signal to a computer, the user input signal being used by the computer to control a cursor position (119a, 119b) on a display of the computer.
A method of isolating an antibody in a composition containing an impurity, the method comprising: (a) lowering the pH of said composition to a pH within a range of about 3.0 to about 6.5, about 3.0 to about 5.0, or about 4.0 to about 4.7; (b) adding a divalent cation to said composition to produce a divalent cation concentration of 2 mM to 50 mM, wherein said divalent cation is selected from the group consisting of Co 2+ or Ni 2+, or their salts; and (c) separating said antibody from said impurity by: (i) subjecting said composition to centrifugation, said centrifugation forming a supernatant and a precipitate, wherein said antibody is substantially in said supernatant; or (ii) filtering said composition, said filtering forming a permeate stream and a retentate stream wherein said antibody is substantially in said permeate stream, and wherein (a) and (b) are carried out sequentially in any order before (c). (a) lowering the pH of said composition to a pH within a range of about 3.0 to about 6.5, about 3.0 to about 5.0, or about 4.0 to about 4.7; (b) adding a divalent cation to said composition to produce a divalent cation concentration of 2 mM to 50 mM, wherein said divalent cation is selected from the group consisting of Co 2+ or Ni 2+, or their salts; and (c) separating said antibody from said impurity by: (i) subjecting said composition to centrifugation, said centrifugation forming a supernatant and a precipitate, wherein said antibody is substantially in said supernatant; or (ii) filtering said composition, said filtering forming a permeate stream and a retentate stream wherein said antibody is substantially in said permeate stream, and wherein (a) and (b) are carried out sequentially in any order before (c). (i) subjecting said composition to centrifugation, said centrifugation forming a supernatant and a precipitate, wherein said antibody is substantially in said supernatant; or (ii) filtering said composition, said filtering forming a permeate stream and a retentate stream wherein said antibody is substantially in said permeate stream, and wherein (a) and (b) are carried out sequentially in any order before (c).