mhurhangee/patent-ind-claim-en huggingface dataset:
An air conditioning control system comprising: an air conditioner configured to perform air conditioning in a room; a setting unit configured to set a first temperature which is a target temperature for a first area (S1) in the room, and set a second temperature which is a target temperature for a second area (S2) in the room; and a control unit configured to control the air conditioner, characterized by a learning unit configured to learn control of the air conditioner by using a learning data set so that a temperature of the first area approaches the first temperature and a temperature of the second area approaches the second temperature, the learning data set including wind direction data regarding a blowing-out direction of air blown-out from the air conditioner, refrigerant data regarding a temperature of a refrigerant flowing in the air conditioner or a temperature of the air blown-out from the air conditioner, air volume data regarding an air volume of the air blown-out from the air conditioner, and area data regarding air temperatures of the first area and the second area. an air conditioner configured to perform air conditioning in a room; a setting unit configured to set a first temperature which is a target temperature for a first area (S1) in the room, and set a second temperature which is a target temperature for a second area (S2) in the room; and a control unit configured to control the air conditioner, characterized by a learning unit configured to learn control of the air conditioner by using a learning data set so that a temperature of the first area approaches the first temperature and a temperature of the second area approaches the second temperature, the learning data set including wind direction data regarding a blowing-out direction of air blown-out from the air conditioner, refrigerant data regarding a temperature of a refrigerant flowing in the air conditioner or a temperature of the air blown-out from the air conditioner, air volume data regarding an air volume of the air blown-out from the air conditioner, and area data regarding air temperatures of the first area and the second area. wind direction data regarding a blowing-out direction of air blown-out from the air conditioner, refrigerant data regarding a temperature of a refrigerant flowing in the air conditioner or a temperature of the air blown-out from the air conditioner, air volume data regarding an air volume of the air blown-out from the air conditioner, and area data regarding air temperatures of the first area and the second area.
Plastic container for storage and transport of agricultural products, of which structure enables to reduce significantly the container weight without reducing its resistance and its storage volume, which is formed by a bottom , longitudinal vertical walls and cross-sectional vertical walls , comprising: - a reinforcement between each junction of the longitudinal vertical walls with the cross-sectional vertical walls consisting of a cylindrical shaped tubular column ; - the walls comprising an upper perimeter edge ; - the upper perimeter edge having an extension on a portion of the longitudinal vertical walls ; - at least a bottom recess positioned in the container bottom . ; CHARACTERIZED in that the lower part of each tubular column is connected to a lower projection running in a perimeter frame of the container bottom. - a reinforcement between each junction of the longitudinal vertical walls with the cross-sectional vertical walls consisting of a cylindrical shaped tubular column ; - the walls comprising an upper perimeter edge ; - the upper perimeter edge having an extension on a portion of the longitudinal vertical walls ; - at least a bottom recess positioned in the container bottom . ; CHARACTERIZED in that the lower part of each tubular column is connected to a lower projection running in a perimeter frame of the container bottom.
A corona plasma cell comprising: a) a substantially needle-shaped polarized electrode and b) a ground electrode , arranged opposite the polarized electrode , comprising a cylinder substantially centered on the polarized electrode , and a porous film , which is a wire mesh substantially plane perpendicular to the polarized electrode , and arranged, relative to the polarized electrode , on the side opposite the cylinder , characterized in that i) the cylinder has a negligible height compared to its diameter with a cylinder thickness between 1 and 5 mm and a diameter between 20 and 100 mm, and ii) the polarized electrode does not enter the cylinder and allows the plasma to be shaped substantially in a very flattened cone shape, substantially transverse to a fluid flow, promoting good ionization of the fluid. a) a substantially needle-shaped polarized electrode and b) a ground electrode , arranged opposite the polarized electrode , comprising a cylinder substantially centered on the polarized electrode , and a porous film , which is a wire mesh substantially plane perpendicular to the polarized electrode , and arranged, relative to the polarized electrode , on the side opposite the cylinder , i) the cylinder has a negligible height compared to its diameter with a cylinder thickness between 1 and 5 mm and a diameter between 20 and 100 mm, and ii) the polarized electrode does not enter the cylinder and allows the plasma to be shaped substantially in a very flattened cone shape, substantially transverse to a fluid flow, promoting good ionization of the fluid.
An optochemical sensor for determining at least two parameters, one of which is temperature, in a measurement medium with a sensor housing comprising at least one light source and at least one detection unit ; and with an optochemical sensitive element arranged in a light path between the light source and detection unit, wherein the optochemical sensitive element is releasably housed in or attached to the sensor housing; said optochemical sensitive element (8, 208, 308, ...) comprises a substrate (222, 322, ...) with a first surface (224, 324, ...) and a second surface (226, 326, ...), at least a first sensing layer (228, 328, ...) arranged on the first surface (224, 324, ...) of the substrate (222, 322, ...), wherein the first sensing layer (228, 328, ...) comprises a first photoluminescent indicator (236, 336, ...) immobilized in a first polymer matrix (232, 332, ...) to determine a first parameter; and at least a second sensing layer (230, 330, ...) arranged on the second surface (226, 326, ...) of the substrate (222, 322, ...), wherein the second sensing layer (230, 330, ...) comprises a temperature sensitive photoluminescent indicator (238, 338, ...) immobilized in a second polymer matrix (234, 334, ...) to determine the temperature of the measurement medium (4, 204, 304, ...); wherein the substrate is optically transparent to excitation light emitted from the light source and to photoluminescent light emitted from the first indicator; wherein the first sensing layer (228, 328, ...) arranged on the first surface (224, 324, ...) is facing the measurement medium (4, 204, 304, ...) and is opposite to the second sensing layer (230, 330, ...) arranged on the second surface (226, 326, ...) and facing away from the measurement medium (4, 204, 304, ...); and wherein in the first indicator differs from the temperature sensitive indicator (238, 338, ...).
A diffractive display element for displaying an image, comprising - a waveguide, - an in-coupling region for diffractively coupling an image into the waveguide body, - an out-coupling region for diffractively coupling the image out of the waveguide body, - an exit pupil expander (EPE) region between the in-coupling region and out-coupling region for expanding the exit pupil of the image on the out-coupling region, characterized in that the EPE region comprises a plurality of diffractive zones arranged on a surface of a waveguide and a plurality of non-diffractive zones between the diffractive zones, and the EPE region comprises at least 10 different diffractive zones and at least 10 different non-diffractive zones positioned such that at least one first non-diffractive zone is positioned between two diffractive zones in a first direction and at least one second non-diffractive zone is positioned between two diffractive zones in a second direction orthogonal to the first direction. - a waveguide, - an in-coupling region for diffractively coupling an image into the waveguide body, - an out-coupling region for diffractively coupling the image out of the waveguide body, - an exit pupil expander (EPE) region between the in-coupling region and out-coupling region for expanding the exit pupil of the image on the out-coupling region, characterized in that the EPE region comprises a plurality of diffractive zones arranged on a surface of a waveguide and a plurality of non-diffractive zones between the diffractive zones, and the EPE region comprises at least 10 different diffractive zones and at least 10 different non-diffractive zones positioned such that at least one first non-diffractive zone is positioned between two diffractive zones in a first direction and at least one second non-diffractive zone is positioned between two diffractive zones in a second direction orthogonal to the first direction.
A lawnmower assembly for use in a lawnmower and comprising a cylinder mower with a rotor provided with a number of cutters for cooperation with a fixed blade , support rollers for supporting and vertical adjustment of the cylinder mower and a receptacle bin for mown grass, the receptacle bin is provided with, at a rear and upper portion, as seen in the direction of driving of the lawnmower, an anchorage for cooperation with a corresponding anchorage on the cylinder mower , characterised in that the receptacle bin has an openable bottom portion , the openable bottom portion has a partly cylindrical, arcuate wall ; and that it is pivotal between closed and opened position, and the openable bottom portion has a substantially horizontal edge portion directed towards the rotor , the edge portion being substantially located flush with, or possibly slightly higher than, the axis of rotation of the rotor and at such a short distance from the periphery of the rotor that an air current generated by the rotor is led into the receptacle bin .
A toilet cubicle comprising a sitting toilet , an enclosure with an inflatable support device and an enclosure supported by the support device , and a floor system with a base and at least two side members which can be pivoted relative to the base , wherein the side members are adjustable between a transport position, in which the side members , along with the base , form a storage body for the enclosure and the sitting toilet , and an operating position, in which the side members , along with the base , form a floor, wherein the toilet cubicle in the transport position corresponds to the dimensions of a suit case. a sitting toilet , an enclosure with an inflatable support device and an enclosure supported by the support device , and a floor system with a base and at least two side members which can be pivoted relative to the base , wherein the side members are adjustable between a transport position, in which the side members , along with the base , form a storage body for the enclosure and the sitting toilet , and an operating position, in which the side members , along with the base , form a floor, wherein the toilet cubicle in the transport position corresponds to the dimensions of a suit case.
Method for determining a direction of travel (F, F') and/or a position of a vehicle traveling on a route , which is embodied as a rail vehicle, in which at least one information signal is emitted in the form of electromagnetic waves by a track-side device , which is embodied as a balise, and is received by a vehicle-side device . wherein the electromagnetic waves are emitted in a first direction of transmission (+Y) with a first property and in a second direction of transmission (-Y) with a second property which can be distinguished from the first property and both the electromagnetic waves with the first property and also the electromagnetic waves with the second property are received and from this the direction of travel (F, F') and/or position is determined, wherein the first direction of transmission (+Y) runs at least partially in a first direction of travel (F) and the second direction of transmission (-Y) runs at least partially in a second direction of travel (F'), characterised in that the waveforms, in particular amplitude waveforms, for the received electromagnetic waves with the first and the second property are established and from these the direction of travel (F, F') is determined.
An objective lens for use in a scanning electron microscope , comprising: an inner polepiece ; an outer polepiece disposed outside the inner polepiece ; at least one through-hole extending through the inner and outer polepieces ; at least one cover member that closes off the through-hole ; and an aperture which is formed between the inner polepiece and the outer polepiece and through which there is leakage of magnetic field toward a sample (S), wherein one opening of the through-hole is formed in the inner surface of the inner polepiece , the inner surface defining an inner space through which the electron beam is arranged to pass, and the other opening of the through-hole is formed in the outer surface of the outer polepiece , wherein electrodes are mounted in the inner space , characterized in that said cover member has voltage supply terminals for supplying voltages to the electrodes . an inner polepiece ; an outer polepiece disposed outside the inner polepiece ; at least one through-hole extending through the inner and outer polepieces ; at least one cover member that closes off the through-hole ; and
A method for processing a service connection in a communication network, comprising: A. determining, in response to a establishment request for said service connection from a user equipment, UE, whether the service corresponding to said establishment request is a sponsored service, wherein said sponsored service is provided by a third party application provider; B. sending a validating request for said sponsored service to said third party application provider, if the service corresponding to said establishment request is a sponsored service and C. controlling said sponsored service connection according to the information related to said sponsored service, if receiving a successful acknowledgment corresponding to said validating request; wherein said related information is acquired from said third party application provider. A. determining, in response to a establishment request for said service connection from a user equipment, UE, whether the service corresponding to said establishment request is a sponsored service, wherein said sponsored service is provided by a third party application provider; B. sending a validating request for said sponsored service to said third party application provider, if the service corresponding to said establishment request is a sponsored service and C. controlling said sponsored service connection according to the information related to said sponsored service, if receiving a successful acknowledgment corresponding to said validating request; wherein said related information is acquired from said third party application provider.
A helmet manufacturing method, comprising the steps of a) producing a shell and a protector , the shell having a head-protecting portion and two opposing cheek-protecting portions , the two cheek-protecting portions extending downward, integrally from left and right ends of the head-protecting portion , respectively, the protector having a jaw-protecting portion and a neck-protecting portion , the neck-protecting portion extending backward, integrally from a back end of the jaw-protecting portion ; b) putting the shell and the protector in a die such that bottom edges of the cheek-protecting portions of the shell connect to a top edge of the neck-protecting portion of the protector ; c) introducing a foam material into the die , apply heat and pressure to the foam material such that the foam material expands and binds to an inner side of the shell and an inner side of the protector ; and d) removing, upon completion of a foaming process, the die , so as to obtain a helmet finished product. a) producing a shell and a protector , the shell having a head-protecting portion and two opposing cheek-protecting portions , the two cheek-protecting portions extending downward, integrally from left and right ends of the head-protecting portion , respectively, the protector having a jaw-protecting portion and a neck-protecting portion , the neck-protecting portion extending backward, integrally from a back end of the jaw-protecting portion ; b) putting the shell and the protector in a die such that bottom edges of the cheek-protecting portions of the shell connect to a top edge of the neck-protecting portion of the protector ; c) introducing a foam material into the die , apply heat and pressure to the foam material such that the foam material expands and binds to an inner side of the shell and an inner side of the protector ; and d) removing, upon completion of a foaming process, the die , so as to obtain a helmet finished product.
A method for providing a global clock in a system including at least two terminals which are connected via paths, comprising the following steps: determining a reference clock source, by which a calibration signal is generated, wherein each of the terminals is connected to the reference clock source through a signal recording unit, 1) generating a calibration signal which is then distributed to each terminals in the system, and recording a transmitting time T of the calibration signal; 2) receiving a backward signal and recording an arrival time T(n) of the backward signal, the backward signal being generated at each of the terminals upon the arrival the calibration signal at the each of the terminals, and determining an absolute deviation Delay(n) of the each of the terminals; 3) adjusting the time at the each of the terminals according to the absolute deviation to form a global clock, characterized in that the reception and recording for the transmitting time T of the calibration signal and the arrival time T(n) of the backward signal is performed by the signal recording unit cooperating with the reference clock source; and in that the minimum time measurement scale of the signal recording unit is less than 1/2 of the clock period of the reference clock source. determining a reference clock source, by which a calibration signal is generated, wherein each of the terminals is connected to the reference clock source through a signal recording unit, 1) generating a calibration signal which is then distributed to each terminals in the system, and recording a transmitting time T of the calibration signal; 2) receiving a backward signal and recording an arrival time T(n) of the backward signal, the backward signal being generated at each of the terminals upon the arrival the calibration signal at the each of the terminals, and determining an absolute deviation Delay(n) of the each of the terminals; 3) adjusting the time at the each of the terminals according to the absolute deviation to form a global clock, 1) generating a calibration signal which is then distributed to each terminals in the system, and recording a transmitting time T of the calibration signal; 2) receiving a backward signal and recording an arrival time T(n) of the backward signal, the backward signal being generated at each of the terminals upon the arrival the calibration signal at the each of the terminals, and determining an absolute deviation Delay(n) of the each of the terminals; 3) adjusting the time at the each of the terminals according to the absolute deviation to form a global clock, characterized in that the reception and recording for the transmitting time T of the calibration signal and the arrival time T(n) of the backward signal is performed by the signal recording unit cooperating with the reference clock source; and in that the minimum time measurement scale of the signal recording unit is less than 1/2 of the clock period of the reference clock source.
A razor cartridge comprising: an elongated housing defining a central open area , and, adjacent each short edge of the housing , a clip-receiving aperture and a clip-receiving channel , a plurality of blades disposed within the open area of the housing , and a pair of clips , characterized in that each clip has a first leg and a second leg , the first leg extending through the clip-receiving aperture and being bent against a lower surface of the housing , and the second leg being wrapped around the housing and seated in the clip-receiving channel , wherein the part of the housing forming the clip-receiving channel has a C-shaped profile defining an elongated empty space extending along the height of the housing with an opening on the bottom side of the housing , wherein said opening is spanned by a portion of the second leg . an elongated housing defining a central open area , and, adjacent each short edge of the housing , a clip-receiving aperture and a clip-receiving channel , a plurality of blades disposed within the open area of the housing , and a pair of clips , characterized in that each clip has a first leg and a second leg , the first leg extending through the clip-receiving aperture and being bent against a lower surface of the housing , and the second leg being wrapped around the housing and seated in the clip-receiving channel , wherein the part of the housing forming the clip-receiving channel has a C-shaped profile defining an elongated empty space extending along the height of the housing with an opening on the bottom side of the housing , wherein said opening is spanned by a portion of the second leg .
A method for network address translation performed by a gateway connecting a first network where nodes are addressed by in-packet Bloom Filters, iBFs, with a second IP network, the method comprising the steps of: acquiring (S102) an iBF representation of a node in the first network, said representation identifying a path from the gateway to the node; translating the iBF representation of the node to an IP address of the node by using at least a partial IP address of the gateway as prefix of the IP address of the node and by embedding (S104) an indication of said iBF representation as suffix of the IP address of the node; and storing (S104c) said IP address of the node in a domain name system, DNS, server or other directory for lookup by an IP node of the second IP network. acquiring (S102) an iBF representation of a node in the first network, said representation identifying a path from the gateway to the node; translating the iBF representation of the node to an IP address of the node by using at least a partial IP address of the gateway as prefix of the IP address of the node and by embedding (S104) an indication of said iBF representation as suffix of the IP address of the node; and storing (S104c) said IP address of the node in a domain name system, DNS, server or other directory for lookup by an IP node of the second IP network.