mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a processor; an accelerometer sensor configured to output data in response to a motion of a first user; and a non-transitory computer-readable medium comprising computer-executable instructions, that when executed by the processor, are configured to cause the apparatus at least to: receive sensor data from the accelerometer sensor; calculate an energy expenditure of the first user from the received data; identify an activity session of the first user, from a plurality of activity session types by identifying a second user, wherein the second user is identified based upon a detected force of contact between the accelerometer sensor and a device (112, 126, 128, 130, 400) of the second user; calculate a total energy expenditure for the first user during the identified activity session; and communicate a haptic message to the first user indicating a closeness of the total energy expenditure to a goal energy expenditure. a processor; an accelerometer sensor configured to output data in response to a motion of a first user; and a non-transitory computer-readable medium comprising computer-executable instructions, that when executed by the processor, are configured to cause the apparatus at least to: receive sensor data from the accelerometer sensor; calculate an energy expenditure of the first user from the received data; identify an activity session of the first user, from a plurality of activity session types by identifying a second user, wherein the second user is identified based upon a detected force of contact between the accelerometer sensor and a device (112, 126, 128, 130, 400) of the second user; calculate a total energy expenditure for the first user during the identified activity session; and communicate a haptic message to the first user indicating a closeness of the total energy expenditure to a goal energy expenditure. receive sensor data from the accelerometer sensor; calculate an energy expenditure of the first user from the received data; identify an activity session of the first user, from a plurality of activity session types by identifying a second user, wherein the second user is identified based upon a detected force of contact between the accelerometer sensor and a device (112, 126, 128, 130, 400) of the second user; calculate a total energy expenditure for the first user during the identified activity session; and communicate a haptic message to the first user indicating a closeness of the total energy expenditure to a goal energy expenditure.
An excavator comprising: a traveling body; an upper turning body rotatably provided on the traveling body; an attachment which has a boom, an arm, and a bucket and is attached to the upper turning body; and a controller configured to perform a control of a cylinder (520, 522, 524) of at least one shaft of the attachment so as to suppress a vibration of the traveling body or the upper turning body, which is caused by an aerial operation of the attachment, characterized in that the controller changes a portion between an oil chamber of a control target (512, 514, 516) and a hydraulic circuit of the cylinder (520, 522, 524) to a state where oil flows out from the oil chamber inside the cylinder (520, 522, 524). a traveling body; an upper turning body rotatably provided on the traveling body; an attachment which has a boom, an arm, and a bucket and is attached to the upper turning body; and a controller configured to perform a control of a cylinder (520, 522, 524) of at least one shaft of the attachment so as to suppress a vibration of the traveling body or the upper turning body, which is caused by an aerial operation of the attachment, characterized in that the controller changes a portion between an oil chamber of a control target (512, 514, 516) and a hydraulic circuit of the cylinder (520, 522, 524) to a state where oil flows out from the oil chamber inside the cylinder (520, 522, 524).
A method comprising: generating at a publisher a request for media, the publisher located at the end of a multi-stage media pipeline comprising a chain of streaming media processing components (10, 12), the publisher connecting the media pipeline to a distribution pipeline comprising a content server, a content delivery system and a client; and transmitting said request for media from the publisher to the media pipeline; dynamically configuring, by the publisher, the chain of streaming media processing components (10, 12) in the media pipeline, wherein dynamically configuring comprises building the media pipeline on demand from the streaming media processing components (10, 12); receiving, at the publisher, the requested media from the media pipeline; transmitting, by the publisher, the requested media to the distribution pipeline. generating at a publisher a request for media, the publisher located at the end of a multi-stage media pipeline comprising a chain of streaming media processing components (10, 12), the publisher connecting the media pipeline to a distribution pipeline comprising a content server, a content delivery system and a client; and transmitting said request for media from the publisher to the media pipeline; dynamically configuring, by the publisher, the chain of streaming media processing components (10, 12) in the media pipeline, wherein dynamically configuring comprises building the media pipeline on demand from the streaming media processing components (10, 12); receiving, at the publisher, the requested media from the media pipeline; transmitting, by the publisher, the requested media to the distribution pipeline.
A Ni based alloy flux cored wire comprising a Ni based alloy as a sheath, wherein the composition of the sheath relative to the total mass of the sheath is within the range of Ni: 60 to 80 percent by mass, Cr: 1 to 15 percent by mass, Mo: 8 to 22 percent by mass, Ti: 0.002 to 0.40 percent by mass, Al: 0.03 to 0.40 percent by mass, and Mg: 0.010 to 0.025 percent by mass, where control is made to ensure C: 0.020 percent by mass or less and Si: 0.15 percent by mass or less, Mn: 4.0 percent by mass or less, Fe: 7.0 percent by mass or less, and W: 4.0 percent by mass or less, with the remainder being incidental impurities including P, S, Cu, Nb, V, and N, the composition of the whole wire, which is the sum total of the sheath components and flux components enveloped in the sheath, relative to the total mass of the wire, is within the range of Ni: 53 to 75 percent by mass, Cr: 1 to 15 percent by mass, Mo: 10 to 20 percent by mass, Mn: 1.5 to 5.5 percent by mass, W: 1.5 to 5.0 percent by mass, Fe: 2.0 to 8.0 percent by mass, Ti: 0.002 to 0.50 percent by mass, Al: 0.02 to 0.50 percent by mass, and Mg: 0.003 to 0.03 percent by mass, where control is made to ensure C: 0.050 percent by mass or less, Si: 0.20 percent by mass or less, Nb: 0.030 percent by mass or less, P: 0.015 percent by mass or less, and S: 0.010 percent by mass or less, wherein the flux enveloped in the sheath optionally contains the sum total of at least two types selected from the group consisting of TiO 2, SiO 2, and ZrO 2: 3 to 15 percent by mass, the sum total of compounds of Na, K, and Li, i.e. the sum total in terms of Na, K, and Li simple substances: 0.1 to 1.0 percent by mass, and incidental impurities relative to the total mass of the wire, with the remainder of the components in the whole flux cored wire being incidental impurities including Cu, V, and N.
Method for altering the width of a strip-shaped rolled material, wherein the rolled material passes uncut through a first unit and a second unit (4 and the rolled material is rolled in a rolling stand in the first unit and/or in the second unit, comprising method steps as follows: - producing the rolled material with a first width B 1, wherein the rolled material emerges from the first unit with a width B = B 1, and the emerging rolled material is transported to the second unit; - producing a transition piece of the rolled material, wherein the rolled material emerges from the first unit with the width B, where B 1 ≤ B ≤ B 2; - producing the rolled material with a second width B 2, wherein the rolled material emerges from the first unit with the width B = B 2; characterised in that the crown of at least one working roll and/or at least one backing roll of the rolling stand is set as a function of a width error e = B setp -B between a setpoint width B setp and the width B of the rolled material, wherein the crown is increased if e > 0 and the crown is reduced if e < 0. - producing the rolled material with a first width B 1, wherein the rolled material emerges from the first unit with a width B = B 1, and the emerging rolled material is transported to the second unit; - producing a transition piece of the rolled material, wherein the rolled material emerges from the first unit with the width B, where B 1 ≤ B ≤ B 2; - producing the rolled material with a second width B 2, wherein the rolled material emerges from the first unit with the width B = B 2;
A computing device with a virtual media device to provide functionality of a remote media device as if it was directly connected to the computing device, comprising: a port to receive media data through a network interface from a remote media device; a listener service in communication with the port, the listener service to receive the media data from the port; and a virtual media device to capture the media data from the listener service and output the media data to an application program, characterized in that the virtual media device selectively operates the port in a locked mode that restricts changes to port settings. a port to receive media data through a network interface from a remote media device; a listener service in communication with the port, the listener service to receive the media data from the port; and a virtual media device to capture the media data from the listener service and output the media data to an application program, characterized in that the virtual media device selectively operates the port in a locked mode that restricts changes to port settings.
A silo plate for a bunker silo and/or for a biogas plant, which can be disposed on the ground, wherein the silo plate comprises several individual elements (2, 4, 9, 27, 103, 105, 109, 427), in particular prefabricated concrete parts, and spaced-apart joints (3, 5, 7, 8, 107) at joining sites of the individual elements, wherein several of the individual elements are formed as drivable ground slabs (2, 103) disposed next to each other, characterized in that the joints have at least one joint sealant, wherein the joint sealant is designed in such a manner that a leak can be detected by visual inspection, and that a protection device (22, 26, 111), in particular a film of synthetic material, that is resistant to liquid manure, farm slurry and leakage water, is disposed across at least two spaced-apart joints or under a joint, or that another joint sealant (12, 13, 19, 21, 22, 23), that is resistant to liquid manure, farm slurry and leakage water, is disposed in the joints, so that the protection device forms a second barrier against the liquid manure, farm slurry and leakage water and that in case of a leakage of the joint sealant, as little soil as possible is contaminated.
A compound of Formula 1 R f -A-OP (O - M +)(OROH) Formula 1 wherein R f is C 4 F 9 or C 6 F 13; A is (CH 2 CF 2) m (CH 2) n -, m=0, 1, or 2, n is 2;; M is H or a Group I metal or an ammonium cation (NH x R 2 y) + wherein R 2 is a C 1 to C 4 alkyl, x is 0 to 4, y is 0 to 4 and x + y is 4; and R is C 3 alkyl or a C 8 to C 40 linear or branched alkyl interrupted by from 2 to 20 oxygen atoms; provided that when R is greater than 8 carbons, the ratio of oxygen atoms to carbon atoms is at least 1:2. R f is C 4 F 9 or C 6 F 13; A is (CH 2 CF 2) m (CH 2) n -, m=0, 1, or 2, n is 2;; M is H or a Group I metal or an ammonium cation (NH x R 2 y) + wherein R 2 is a C 1 to C 4 alkyl, x is 0 to 4, y is 0 to 4 and x + y is 4; and R is C 3 alkyl or a C 8 to C 40 linear or branched alkyl interrupted by from 2 to 20 oxygen atoms; provided that when R is greater than 8 carbons, the ratio of oxygen atoms to carbon atoms is at least 1:2.
A method for selecting an antigen binding protein that binds to human HER1, wherein the antigen binding protein binds within an amino acid sequence of PPLMLYNPTTYQMDVNPEGK (SEQ ID NO:1) of human HER1; wherein a) at least one polypeptide selected from the group consisting of: SEQ ID NO: 12 TtSlyDcas-HER1, SEQ ID NO: 13 TtSlyDcys-HER1, SEQ ID NO: 14 TtSlyD -HER1, SEQ ID NO: 15 TtSlyD -HER1, SEQ ID NO: 16 TtSlyD -HER1, and SEQ ID NO: 18 TgSlyDcys-HER1, which comprises the amino acid sequence of SEQ ID NO:1; is used to select antigen binding proteins, which show binding to the at least one polypeptide under a) and thereby selecting an antigen binding protein that binds within an amino acid sequence of PPLMLYNPTTYQMDVNPEGK (SEQ ID NO:1) of human HER1. a) at least one polypeptide selected from the group consisting of: SEQ ID NO: 12 TtSlyDcas-HER1, SEQ ID NO: 13 TtSlyDcys-HER1, SEQ ID NO: 14 TtSlyD -HER1, SEQ ID NO: 15 TtSlyD -HER1, SEQ ID NO: 16 TtSlyD -HER1, and SEQ ID NO: 18 TgSlyDcys-HER1, which comprises the amino acid sequence of SEQ ID NO:1; is used to select antigen binding proteins, which show binding to the at least one polypeptide under a) and thereby selecting an antigen binding protein that binds within an amino acid sequence of PPLMLYNPTTYQMDVNPEGK (SEQ ID NO:1) of human HER1.
A method for producing a component by forming a workpiece from sheet metal using a manufacturing device with two press beams (2, 3) oriented in parallel with one another, with bending tools (6, 7) mounted on the press beams (2, 3), and with a controller having a manufacturing program for the semi-automatic operation of the manufacturing device, wherein at least two manufacturing steps (F1, F2) are each performed using bend-forming, and wherein one manufacturing step (F1, F2) comprises the measures: - positioning stops (8, 9) for orienting the workpiece in a processing region, wherein the positioning of the stops (8, 9) is carried out automatically by means of the controller based on commands of the manufacturing program; - placing a workpiece into the processing region by placing it on a lower tool and positioning the workpiece against and/or placing it on the stops (8, 9) by means of an operator; - carrying out the bend-forming operation by pressing an upper tool against the workpiece and the lower tool by means of moving the press beams (2, 3) against each other; - moving the press beams (2, 3) apart; - removing the workpiece from the lower tool by means of the operator; wherein, after a first manufacturing step, the performance of a subsequent, second manufacturing step of the manufacturing program is started, wherein the processing region is captured by at least one camera (17, 18), characterized in that the position and orientation of the workpiece is determined by an image recognition program, and, based on the position and orientation of the workpiece determined by the image recognition program, the subsequent, second manufacturing step is started by the manufacturing program by repositioning the stops (8, 9). - positioning stops (8, 9) for orienting the workpiece in a processing region, wherein the positioning of the stops (8, 9) is carried out automatically by means of the controller based on commands of the manufacturing program; - placing a workpiece into the processing region by placing it on a lower tool and positioning the workpiece against and/or placing it on the stops (8, 9) by means of an operator; - carrying out the bend-forming operation by pressing an upper tool against the workpiece and the lower tool by means of moving the press beams (2, 3) against each other; - moving the press beams (2, 3) apart; - removing the workpiece from the lower tool by means of the operator; wherein, after a first manufacturing step, the performance of a subsequent, second manufacturing step of the manufacturing program is started, wherein the processing region is captured by at least one camera (17, 18), characterized in that the position and orientation of the workpiece is determined by an image recognition program, and, based on the position and orientation of the workpiece determined by the image recognition program, the subsequent, second manufacturing step is started by the manufacturing program by repositioning the stops (8, 9).
Method for treating outlet air in a pneumatic waste conveying system, in which the outlet air is at least partly the conveying air to be used in waste conveying, wherein in the method in a first phase additional air is brought into the body of conveying air in the partial-vacuum generator of the pneumatic waste conveying system before the output aperture of the partial-vacuum generator and in that in the method in a second phase additional air is brought into the body of outlet air as a consequence of the suction effect brought about by the outlet air in such a way that the outlet air and the additional air mix with each other at least partly, wherein the partial-vacuum generator is connected with a pipeline from the suction side of the partial-vacuum generator to a separating means, characterised in that a supply air duct is arranged in connection with the partial-vacuum generator, with which the additional air of the first phase is brought into the partial vacuum generator.
A fragrance product, comprising: a bottle; a pump system attached to the bottle, the pump system comprising an overtube adapter comprising a flange extending outward from an end of the overtube adapter, and an overtube attached to the overtube adapter, the overtube comprising: a first end; a second end; a tubular wall between the first end and the second end; decorations in the overtube consisting of at least one opening through the tubular wall; a first continuous portion beginning at the first end and extending to the second end bisecting no decorations; and a second continuous portion beginning at the first end and extending to the second end bisecting no decorations. a bottle; a pump system attached to the bottle, the pump system comprising an overtube adapter comprising a flange extending outward from an end of the overtube adapter, and an overtube attached to the overtube adapter, the overtube comprising: a first end; a second end; a tubular wall between the first end and the second end; decorations in the overtube consisting of at least one opening through the tubular wall; a first continuous portion beginning at the first end and extending to the second end bisecting no decorations; and a second continuous portion beginning at the first end and extending to the second end bisecting no decorations. a first end; a second end; a tubular wall between the first end and the second end; decorations in the overtube consisting of at least one opening through the tubular wall; a first continuous portion beginning at the first end and extending to the second end bisecting no decorations; and a second continuous portion beginning at the first end and extending to the second end bisecting no decorations.
Method for an audio handling entity for damping of dominant frequencies in a time segment of an audio signal, the method comprising: - obtaining a time segment of an audio signal, - deriving an estimate of the spectral density of the time segment, - deriving an approximation of the estimated spectral density by smoothing the estimate, - deriving a frequency mask by inverting the approximation of the estimated spectral density, such that the output of the inverting is producing a frequency domain signal as the frequency mask. - damping frequencies comprised in the audio time segment, based on the frequency mask. - obtaining a time segment of an audio signal, - deriving an estimate of the spectral density of the time segment, - deriving an approximation of the estimated spectral density by smoothing the estimate, - deriving a frequency mask by inverting the approximation of the estimated spectral density, such that the output of the inverting is producing a frequency domain signal as the frequency mask. - damping frequencies comprised in the audio time segment, based on the frequency mask.
A method for producing chitin and/or chitosan from insect cuticles, comprising the following steps: (i) pressing of the insect cuticles, then, (ii) enzymatic hydrolysis of the insect cuticles by a proteolytic enzyme, the cuticles having been treated with an oxidising agent prior to enzymatic hydrolysis. (i) pressing of the insect cuticles, then, (ii) enzymatic hydrolysis of the insect cuticles by a proteolytic enzyme,
An ultrasound diagnosis apparatus comprising: a communicator connected with a plurality of different wireless probes through a wireless communication method by receiving pairing reception signals from the plurality of wireless ultrasound probes; a controller configured to control the communicator to wirelessly connect the ultrasound diagnosis apparatus with the plurality of wireless ultrasound probes and to wirelessly receive status information regarding the connected plurality of wireless ultrasound probes; and a display configured to display a user interface, 'UI', indicating the received status information comprising at least one of an identification, `ID', a wireless communication frequency, a connection type, a supported application, a wireless communication method, a communication status, battery charging information, a remaining battery capacity, and a time left for use with respect to each of the plurality of wireless ultrasound probes; wherein the communicator comprises wireless communication modules respectively paired one-to-one with the plurality of wireless ultrasound probes and data communication modules configured to respectively transmit and receive ultrasound image data to and from the plurality of wireless ultrasound probes. a communicator connected with a plurality of different wireless probes through a wireless communication method by receiving pairing reception signals from the plurality of wireless ultrasound probes; a controller configured to control the communicator to wirelessly connect the ultrasound diagnosis apparatus with the plurality of wireless ultrasound probes and to wirelessly receive status information regarding the connected plurality of wireless ultrasound probes; and a display configured to display a user interface, 'UI', indicating the received status information comprising at least one of an identification, `ID', a wireless communication frequency, a connection type, a supported application, a wireless communication method, a communication status, battery charging information, a remaining battery capacity, and a time left for use with respect to each of the plurality of wireless ultrasound probes; wherein the communicator comprises wireless communication modules respectively paired one-to-one with the plurality of wireless ultrasound probes and data communication modules configured to respectively transmit and receive ultrasound image data to and from the plurality of wireless ultrasound probes.