mhurhangee/ep-ind-claims huggingface dataset:
A method for monitoring a non-rotating turbomachine part (110, 120; 200) having an insulation placed over the turbomachine part (110, 120; 200), the method comprising: locating a non-contact type sensor in close proximity to a target, one of the non-contact type sensor and the target attached to the turbomachine part (110, 120; 200) by a rod formed of a material having a low coefficient of thermal expansion to minimize the movement of the rod during heating so that the movement of one of the non-contact type sensor and the target is primarily caused by the turbomachine part (110, 120; 200) movement alone, the other of the non-contact type sensor and the target attached to a stationary structure located near the turbomachine part (110, 120; 200), the stationary structure being substantially separate from the turbomachine part (110, 120; 200), and the rod being configured to extend through the insulation placed over the turbomachine part (110, 120; 200) so that the non-contact type sensor has unobstructed line-of-sight to the target; measuring displacement of the turbomachine part (110, 120; 200), the measuring comprising: (a) monitoring displacement of the turbomachine part (110, 120; 200) with the non-contact type sensor; (b) collecting data regarding the displacement of the turbomachine part (110, 120; 200); (c) analyzing the data to determine if the displacement exceeds a predetermined threshold range. locating a non-contact type sensor in close proximity to a target, one of the non-contact type sensor and the target attached to the turbomachine part (110, 120; 200) by a rod formed of a material having a low coefficient of thermal expansion to minimize the movement of the rod during heating so that the movement of one of the non-contact type sensor and the target is primarily caused by the turbomachine part (110, 120; 200) movement alone, the other of the non-contact type sensor and the target attached to a stationary structure located near the turbomachine part (110, 120; 200), the stationary structure being substantially separate from the turbomachine part (110, 120; 200), and the rod being configured to extend through the insulation placed over the turbomachine part (110, 120; 200) so that the non-contact type sensor has unobstructed line-of-sight to the target; measuring displacement of the turbomachine part (110, 120; 200), the measuring comprising: (a) monitoring displacement of the turbomachine part (110, 120; 200) with the non-contact type sensor; (b) collecting data regarding the displacement of the turbomachine part (110, 120; 200); (c) analyzing the data to determine if the displacement exceeds a predetermined threshold range. (a) monitoring displacement of the turbomachine part (110, 120; 200) with the non-contact type sensor; (b) collecting data regarding the displacement of the turbomachine part (110, 120; 200); (c) analyzing the data to determine if the displacement exceeds a predetermined threshold range.
Grinding device for implementing a grinding operation, the device comprising: a grinding chamber intended to receive a matter for grinding of an initial mean size; a rotor, rotatably mounted in the chamber around an axis and comprising a plurality of blades extending radially from the axis; and a sieve comprising a plurality of openings and configured to classify and/or split the matter ground by the rotor; characterised in that the sieve is mounted around the rotor in order to turn around the axis in the opposite direction to the rotating direction of the rotor; so that each of the openings has a height (H o) extending parallel to the axis and a width extending perpendicularly to the axis between 1 mm and 20 mm; and so that the rotation of the rotor and that of the sieve are adjustable in order to provide a difference of peripheral speed between the rotor and the sieve between 100 m/s and 400 m/s, so as to reduce the initial mean size of the ground matter by a factor of 5 to 20. a grinding chamber intended to receive a matter for grinding of an initial mean size; a rotor, rotatably mounted in the chamber around an axis and comprising a plurality of blades extending radially from the axis; and a sieve comprising a plurality of openings and configured to classify and/or split the matter ground by the rotor; characterised in that the sieve is mounted around the rotor in order to turn around the axis in the opposite direction to the rotating direction of the rotor; so that each of the openings has a height (H o) extending parallel to the axis and a width extending perpendicularly to the axis between 1 mm and 20 mm; and so that the rotation of the rotor and that of the sieve are adjustable in order to provide a difference of peripheral speed between the rotor and the sieve between 100 m/s and 400 m/s, so as to reduce the initial mean size of the ground matter by a factor of 5 to 20.
A method of transmitting a wireless signal comprising: receiving an input symbol i, generating a time index signal t as a counter value of a counter (202, 410) by counting symbol periods of the input symbol i, receiving a frequency offset signal (205, 422) and the time index signal t by a summer (204, 420); accumulating the frequency offset signal (205, 422) by the summer (204, 420); dividing the accumulated frequency offset signal by a divider (206, 430); and determining an in-phase component value and a quadrature component value of the modulating symbol using the time index signal t, the divided accumulated frequency offset signal offset, and the received input symbol i by using an in-phase component index KI value and a quadrature component index KQ value and a look-up table (208, 440), wherein the time index signal t moves the in-phase component index KI value and the quadrature component index KQ value through the look-up table (208, 440) in such a way as to provide a 3π/8 phase shift to the received input symbol i. receiving an input symbol i, generating a time index signal t as a counter value of a counter (202, 410) by counting symbol periods of the input symbol i, receiving a frequency offset signal (205, 422) and the time index signal t by a summer (204, 420); accumulating the frequency offset signal (205, 422) by the summer (204, 420); dividing the accumulated frequency offset signal by a divider (206, 430); and determining an in-phase component value and a quadrature component value of the modulating symbol using the time index signal t, the divided accumulated frequency offset signal offset, and the received input symbol i by using an in-phase component index KI value and a quadrature component index KQ value and a look-up table (208, 440), wherein the time index signal t moves the in-phase component index KI value and the quadrature component index KQ value through the look-up table (208, 440) in such a way as to provide a 3π/8 phase shift to the received input symbol i.
Busbar system, comprising a plurality of bar modules (1, 1a, 1b) which are situated one behind the other and are connected to one another by means of clamping brackets, wherein each bar module (1, 1a, 1b) has a plurality of busbars which are arranged parallel to one another at a distance and which have recesses (4a, 4b), which are open on one side, at both ends (3a, 3b), said recesses running in the longitudinal extent at one end of the bar module (1, 1a, 1b) and running transversely to the longitudinal extent at the other end, wherein, for the purpose of electrically connecting two bar modules (1, 1a, 1b), the bar module end of one bar module (1, 1a, 1b) is plugged into one of the clamping brackets by way of the recesses which run in the longitudinal extent, and the bar module end of the other bar module (1, 1a, 1b) with the recesses which run transversely to the longitudinal extent is suspended in this clamping bracket on the opposite side, wherein in each case one busbar of one bar module (1, 1a, 1b) bears laterally against a busbar of the other bar module (1, 1a, 1b), and wherein the recesses (4a, 4b), as seen from the side, form a passage opening through which a clamping element which is supported against the clamping bracket runs, said clamping element pressing the sides (3c, 3d) of the busbars, which sides bear against one another, against one another.
A vinyl chloride polymer having a polydispersity of 2.0 to 2.3 and a porosity of 60 % or greater, wherein the PDI is determined as set forth in the specification.
Temperature monitoring device intended to be permanently attached inside an opening of a wall defining an area to be monitored comprising: - a frame intended to be fitted into said opening, provided with means for attachment onto said opening and with sealing means for attaching the frame on the wall and ensuring that the wall is sealed at the opening; - a heat sensor arranged so as to receive infrared waves and convert said waves into electrical signals; and - an optical system housed in said frame and rigidly connected therewith for focussing the infrared waves, coming from the area to be monitored, towards said heat sensor, said heat sensor and the optical system being housed in said frame which forms the one and only frame. - a frame intended to be fitted into said opening, provided with means for attachment onto said opening and with sealing means for attaching the frame on the wall and ensuring that the wall is sealed at the opening; - a heat sensor arranged so as to receive infrared waves and convert said waves into electrical signals; and - an optical system housed in said frame and rigidly connected therewith for focussing the infrared waves, coming from the area to be monitored, towards said heat sensor,
A battery cover color change method, carried out by an electronic device, wherein the electronic device comprises an application and a battery cover, and the method comprising: sending, by the application, first audio data to an audio playing process; in the audio playing process, obtaining color change data based on the first audio data, wherein the color change data corresponds to rhythms of the first audio data; and playing the first audio data while the battery cover changes colors in accordance with the rhythms of the first audio data driven by the color change data; characterized in that the first audio data sequentially passes through an application layer, an application framework, an audio hub service layer, an audio hardware abstraction layer, and a kernel layer in the audio playing process; wherein the kernel layer comprises a battery cover virtual device and an audio virtual device, wherein the battery cover virtual device and the audio virtual device are independent of each other. sending, by the application, first audio data to an audio playing process; in the audio playing process, obtaining color change data based on the first audio data, wherein the color change data corresponds to rhythms of the first audio data; and playing the first audio data while the battery cover changes colors in accordance with the rhythms of the first audio data driven by the color change data; characterized in that the first audio data sequentially passes through an application layer, an application framework, an audio hub service layer, an audio hardware abstraction layer, and a kernel layer in the audio playing process; wherein the kernel layer comprises a battery cover virtual device and an audio virtual device, wherein the battery cover virtual device and the audio virtual device are independent of each other.
A master-receiver in a subscriber network that receives a service instance from a headend and re-transmits the service instance to a mobile client-receiver, the master-receiver comprising: a transceiver adapted to wirelessly transmit messages and the service instance to the client-receiver and wirelessly receive a plurality of messages and information therefrom; a cryptographic device in communication with the transceiver and adapted to encrypt the service instance, and a processor in communication with the transceiver and the cryptographic device, adapted to process messages from the client-receiver, wherein said processor is further adapted to dynamically determine an encryption scheme out of a plurality of encryption schemes, for the service instance transmitted to the client-receiver, the processor is adapted to use at least one message of the plurality of received client-receiver messages to determine the encryption scheme for the service instance, and the at least one message includes hardware information of the client-receiver that the processor is adapted to use for dynamically determining the encryption scheme of the transmitted service instance. a transceiver adapted to wirelessly transmit messages and the service instance to the client-receiver and wirelessly receive a plurality of messages and information therefrom; a cryptographic device in communication with the transceiver and adapted to encrypt the service instance, and a processor in communication with the transceiver and the cryptographic device, adapted to process messages from the client-receiver, wherein said processor is further adapted to dynamically determine an encryption scheme out of a plurality of encryption schemes, for the service instance transmitted to the client-receiver, the processor is adapted to use at least one message of the plurality of received client-receiver messages to determine the encryption scheme for the service instance, and the at least one message includes hardware information of the client-receiver that the processor is adapted to use for dynamically determining the encryption scheme of the transmitted service instance.
A biocidal composition comprising: 2,2-dibromomalonamide and an isothiazolinone-based biocide wherein:- (a) the isothiazolinone-based biocide is 5-chloro-2-methyl-4-isothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the 5-chloro-2-methyl-4-isothiazolin-3-one is from 32:1 to 1:2; (b) the isothiazolinone-based biocide is 2-methyl-4-isothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the 2-methyl-4-isothiazolin-3-one is from 4:1 to 1:4; (c) the isothiazolinone-based biocide is 4,5-dichloro-2-n-octylisothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the 4,5-dichloro-2-n-octylisothiazolin-3-one is from 4:1 to 1:16; (d) the isothiazolinone-based biocide is 1,2-benzisothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the 1,2-benzisothiazolin-3-one is from 1:1 to 1:5; (e) the isothiazolinone-based biocide is 2-n-octyl-4-isothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the 2-n-octyl-4-isothiazolin-3-one is from 1:2 to 1:320; (f) the isothiazolinone-based biocide is N-methyl-1,2-benzisothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the N-methyl-1,2-benzisothiazolin-3-one is from 1:1 to 1:256; or (g) the isothiazolinone-based biocide is N-butyl-1,2-benzisothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the N-butyl-1,2-benzisothiazolin-3-one is from 1:2 to 1:8. (a) the isothiazolinone-based biocide is 5-chloro-2-methyl-4-isothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the 5-chloro-2-methyl-4-isothiazolin-3-one is from 32:1 to 1:2; (b) the isothiazolinone-based biocide is 2-methyl-4-isothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the 2-methyl-4-isothiazolin-3-one is from 4:1 to 1:4; (c) the isothiazolinone-based biocide is 4,5-dichloro-2-n-octylisothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the 4,5-dichloro-2-n-octylisothiazolin-3-one is from 4:1 to 1:16; (d) the isothiazolinone-based biocide is 1,2-benzisothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the 1,2-benzisothiazolin-3-one is from 1:1 to 1:5; (e) the isothiazolinone-based biocide is 2-n-octyl-4-isothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the 2-n-octyl-4-isothiazolin-3-one is from 1:2 to 1:320; (f) the isothiazolinone-based biocide is N-methyl-1,2-benzisothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the N-methyl-1,2-benzisothiazolin-3-one is from 1:1 to 1:256; or (g) the isothiazolinone-based biocide is N-butyl-1,2-benzisothiazolin-3-one and the weight ratio of 2,2-dibromomalonamide to the N-butyl-1,2-benzisothiazolin-3-one is from 1:2 to 1:8.
A tie comprising: a head; a locking member captively mounted inside the head; and an elongate flexible strap attached to the head and having a free end arranged to be inserted into the head and secured, such that retraction from the head is inhibited by the locking member; characterised in that: the free end of the strap is provided with a guide channel or slot extending in the longitudinal direction of the strap arranged to guide the free end of the strap to pass the locking member. a head; a locking member captively mounted inside the head; and an elongate flexible strap attached to the head and having a free end arranged to be inserted into the head and secured, such that retraction from the head is inhibited by the locking member; characterised in that: the free end of the strap is provided with a guide channel or slot extending in the longitudinal direction of the strap arranged to guide the free end of the strap to pass the locking member. the free end of the strap is provided with a guide channel or slot extending in the longitudinal direction of the strap arranged to guide the free end of the strap to pass the locking member.
A method for configuring resources for three-dimensional channel measurement, the method comprising: selecting, by a base station provided with a two-dimensional array of antennas, channel quality measurement resources for three-dimensional channel measurement from channel quality measurement resources preconfigured for a user equipment, wherein each of the channel quality measurement resources corresponds to one time-frequency resource position and at least one port; and characterized in that, transmitting, by the base station for each of the selected channel quality measurement resources a channel measurement reference signal to the user equipment via the port or ports corresponding to the channel quality measurement resource on the time-frequency resource position corresponding to the channel quality measurement resource, and transmitting indicators of the selected channel quality measurement resources to the user equipment; wherein the sum of the numbers of ports corresponding to the respective selected channel quality measurement resources is equal to the total number of ports to be measured for three-dimensional-Multiple Input Multiple Output, 3D-MIMO. selecting, by a base station provided with a two-dimensional array of antennas, channel quality measurement resources for three-dimensional channel measurement from channel quality measurement resources preconfigured for a user equipment, wherein each of the channel quality measurement resources corresponds to one time-frequency resource position and at least one port; and characterized in that, transmitting, by the base station for each of the selected channel quality measurement resources a channel measurement reference signal to the user equipment via the port or ports corresponding to the channel quality measurement resource on the time-frequency resource position corresponding to the channel quality measurement resource, and transmitting indicators of the selected channel quality measurement resources to the user equipment; wherein the sum of the numbers of ports corresponding to the respective selected channel quality measurement resources is equal to the total number of ports to be measured for three-dimensional-Multiple Input Multiple Output, 3D-MIMO.
Method for supporting on an undercarriage an end of a self-supporting load, in particular a tower section of a wind turbine, wherein the end of the load is engaged directly by at least one lower support and at least one upper support, wherein each support (5,6) has one end connected to the undercarriage, while another end of the at least one lower support engages a lower part of the end of the load and another end of the at least one upper support engages an upper part of the end of the load, so that the lower and upper supports enclose an acute angle (α) in a vertical plane, and wherein at least the upper or lower support(s) is/are adjustable in lengthwise direction, characterized in that the angle (α) between the lower and upper supports (5, 6) can be adapted to the dimensions of the end of the load by actuating moving means, in the form of an hydraulic cylinder, connected between the lower support(s) and said other end of the upper support.
Power plant with at least one steam cycle and with at least one high temperature thermal energy exchange system, with - at least one heat exchange chamber with chamber boundaries which surround at least one heat exchange chamber interior of the heat exchange chamber, wherein - the chamber boundaries comprise at least one inlet opening for guiding in an inflow of at least one heat transfer fluid into the heat exchange chamber interior and at least one outlet opening for guiding out an outflow of the heat transfer fluid out of the heat exchange chamber interior; - at least one heat storage material is arranged in the heat exchange chamber interior such that a heat exchange flow of the heat transfer fluid through the heat exchange chamber interior causes a heat exchange between the heat storage material and the heat transfer fluid; wherein - the high temperature thermal energy exchange system comprises at least one retrofit component, and wherein a chamber boundary with one of the openings (1111, 1112), the chamber boundary being part of the chamber boundaries, comprises a transition area with a tapering profile such that an opening diameter of the opening (1111, 1112) adapts to a chamber diameter of the heat exchange chamber, characterized in that the high temperature thermal energy exchange system is configured such that the heat transfer fluid enters the heat exchange chamber through a diffuser, and wherein the diffuser comprises stones and is arranged at the transition area of the heat exchange chamber. - at least one heat exchange chamber with chamber boundaries which surround at least one heat exchange chamber interior of the heat exchange chamber, wherein - the chamber boundaries comprise at least one inlet opening for guiding in an inflow of at least one heat transfer fluid into the heat exchange chamber interior and at least one outlet opening for guiding out an outflow of the heat transfer fluid out of the heat exchange chamber interior; - at least one heat storage material is arranged in the heat exchange chamber interior such that a heat exchange flow of the heat transfer fluid through the heat exchange chamber interior causes a heat exchange between the heat storage material and the heat transfer fluid; wherein - the high temperature thermal energy exchange system comprises at least one retrofit component, and the high temperature thermal energy exchange system is configured such that the heat transfer fluid enters the heat exchange chamber through a diffuser, and wherein the diffuser comprises stones and is arranged at the transition area of the heat exchange chamber.
Control switch for operating a machine, in particular a wireless, portable and manually operable remote control for a crane, comprising a housing, which has a gripping region for an operator, and a detecting device, by means of which an operator can be detected, and a safety circuit, by means of which the control switch can be activated when an operator is detected and can be deactivated when an operator is not detected, characterised in that the detecting device comprises at least one sensor (8, 9, 10) which detects in a near field an operator's hand holding the control switch in the gripping region, and the detecting device comprises at least one further sensor (9, 10) which detects a use of the control switch.