mhurhangee/patent-ind-claim-en huggingface dataset:
Refrigeration and/or freezer device comprising a device body and a door assembly having a door element , wherein the edge portion of the door element is arranged on a frame profile , wherein, in the closed position, the door assembly is arranged on the device body by means of at least one sealing element , wherein, in the profile longitudinal direction, the frame profile comprises a base layer and at least one cover layer , connected therewith, on at least one side, wherein the base layer and the cover layer is produced from a polymer material, wherein, in the profile longitudinal direction, the cover layer has a greater wall thickness in at least one corner region of the frame profile than in a side region , wherein, in the corner region of the frame profile , the base layer and/or the cover layer comprise at least one chamfer which is formed so as to be approximately at an obtuse angle with respect to at least one side region , characterised in that the side regions of the frame profile adjoining the corner region of the frame profile have an equidistant wall thickness in the profile longitudinal direction, which wall thickness is smaller than that in the corner region .
An image forming apparatus comprising: a first developing member configured to develop a first toner image on a first image carrier with a brilliant toner containing a metallic flat pigment; a second developing member configured to develop a second toner image on a second image carrier with a non-brilliant toner containing no metallic flat pigment; a transfer unit configured to transfer the first toner image and the second toner image onto a transfer body ; and a controller configured to control the first developing member and the second developing member , wherein the controller is configured to, when superimposing the first toner image and the second toner image on each other on the transfer body , control a development efficiency of the brilliant toner of the first developing member to be lower than when forming the first toner image on the transfer body without superimposing the first toner image and the second toner image on each other on the transfer body . a first developing member configured to develop a first toner image on a first image carrier with a brilliant toner containing a metallic flat pigment; a second developing member configured to develop a second toner image on a second image carrier with a non-brilliant toner containing no metallic flat pigment; a transfer unit configured to transfer the first toner image and the second toner image onto a transfer body ; and a controller configured to control the first developing member and the second developing member , wherein the controller is configured to, when superimposing the first toner image and the second toner image on each other on the transfer body , control a development efficiency of the brilliant toner of the first developing member to be lower than when forming the first toner image on the transfer body without superimposing the first toner image and the second toner image on each other on the transfer body .
A wire harness comprising: a wire bundle having a plurality of electric wires; and a protector attached to the wire bundle , the wire bundle having a relay line drawn out from the wire bundle , the relay line having a connector at an end portion of the relay line , the protector having: a housing portion (41A to 41D) to cover the wire bundle ; and a connector holding portion (43A to 43D, 44, 45) capable of holding the connector in a first posture and a second posture different from the first posture, the connector holding portion (43Ato 43D, 44, 45) being located in the housing portion (41Ato 41D) within a range to allow the relay line to be extended to hold the connector on the connector holding portion (43A to 43D, 44, 45), and the connector being held by the connector holding portion (43A to 43D, 44, 45) in one of the first posture and the second posture to house the relay line in the protector , characterized in that that a first fitting direction between the connector and a counterpart connector upon the connector is held in the first posture and a second fitting direction between the connector and the counterpart connector upon the connector is held in the second posture are different from each other. a wire bundle having a plurality of electric wires; and a protector attached to the wire bundle , the wire bundle having a relay line drawn out from the wire bundle , the relay line having a connector at an end portion of the relay line , the protector having: a housing portion (41A to 41D) to cover the wire bundle ; and a connector holding portion (43A to 43D, 44, 45) capable of holding the connector in a first posture and a second posture different from the first posture, the connector holding portion (43Ato 43D, 44, 45) being located in the housing portion (41Ato 41D) within a range to allow the relay line to be extended to hold the connector on the connector holding portion (43A to 43D, 44, 45), and the connector being held by the connector holding portion (43A to 43D, 44, 45) in one of the first posture and the second posture to house the relay line in the protector , characterized in that that a first fitting direction between the connector and a counterpart connector upon the connector is held in the first posture and a second fitting direction between the connector and the counterpart connector upon the connector is held in the second posture are different from each other.
A computer-executed method for IEEE 802.15.4 devices based on an active carrier sense based carrier-sense multiple access with collision avoidance, ACS-CSMA/CA, control program and standard CSMA/CA control program for coexistence of an IEEE 802.15.4 network composing of IEEE 802.15.4 devices and IEEE 802.11 network composing of IEEE 802.11 devices sharing frequency spectra between the networks, wherein the computer-executed method is provided on an IEEE 802.15.4 device, the computer-executed method causes a processor of the IEEE 802.15.4 device to perform steps that comprise: estimating a severity of IEEE 802.11 interference based on a severity estimation metric; selecting the ACS-CSMA/CA control program based on the estimated severity, wherein the ACS-CSMA/CA control program is configured to perform: dynamically updating a maximum number of backoffs, macMaxCSMABackoffs, based on the estimated severity; determining if a number of backoffs, NB, exceeds the updated macMaxCSMABackoffs; and performing consecutive CCA operation to continuously detect channel status; and transmitting frames when the detected channel status is an idle state or incrementing number of retransmissions, NR, when the detected channel status is a busy state. estimating a severity of IEEE 802.11 interference based on a severity estimation metric; selecting the ACS-CSMA/CA control program based on the estimated severity, wherein the ACS-CSMA/CA control program is configured to perform: dynamically updating a maximum number of backoffs, macMaxCSMABackoffs, based on the estimated severity; determining if a number of backoffs, NB, exceeds the updated macMaxCSMABackoffs; and performing consecutive CCA operation to continuously detect channel status; and dynamically updating a maximum number of backoffs, macMaxCSMABackoffs, based on the estimated severity; determining if a number of backoffs, NB, exceeds the updated macMaxCSMABackoffs; and performing consecutive CCA operation to continuously detect channel status; and transmitting frames when the detected channel status is an idle state or incrementing number of retransmissions, NR, when the detected channel status is a busy state.
Use of a binder for a separator of a non-aqueous electrolyte battery, wherein said binder comprises a 2-cyanoethyl group-containing polymer being cyanoethyl polyvinyl alcohol having bis-cyanoethyl ether content of 0.5% by weight or less as an impurity, and wherein said binder is prepared by a process comprising the following steps: - mixing a polyvinyl alcohol in water to form an aqueous solution of polyvinyl alcohol, said polyvinyl alcohol being homogeneously dissolved ; - mixing a catalyst being caustic soda in said aqueous solution of polyvinyl alcohol to form an homogeneous mixture ; and, - reacting acrylonitrile in said homogeneous mixture at a temperature comprised between 0 to 60°C for a duration comprised between 2 to 12 hours. - mixing a polyvinyl alcohol in water to form an aqueous solution of polyvinyl alcohol, said polyvinyl alcohol being homogeneously dissolved ; - mixing a catalyst being caustic soda in said aqueous solution of polyvinyl alcohol to form an homogeneous mixture ; and, - reacting acrylonitrile in said homogeneous mixture at a temperature comprised between 0 to 60°C for a duration comprised between 2 to 12 hours.
Bone anchoring device (1; 10) comprising a first (2a; 12a) and a second (2b; 12b) arm defining therebetween a first slot (3a; 13a) of depth p extending along an axis x-x', said first (2a; 12a) and second (2b; 12b) arms respectively bearing a first (4a; 14a) and a second (4b; 14b) branch extending outside of said first slot (3a; 13a), said first branch (4a; 14a) being arranged so as to define with the arm which bears it a second slot (3b; 13b) and said second branch (4b; 14b) being arranged so as to define with the arm (2b; 12b) which bears it a third slot (3c; 13c), characterized in that said device (1; 10) is arranged such that, in the rest position: - the orthogonal projection on the axis (x-x') of the bottom of each of the second (3b; 13b) and third (3c; 13c) slots is located in said first slot (3a; 13a) at a distance from the bottom of this slot of at least 10%, preferably at least 20%, preferably at least 30%, preferably at least 40%, even more preferably at least 50%, of the depth p; and - the distances d1 separating the bottom of said second slot from the part of the end of the branch (4a; 14a) which defines it which is the furthest away from it, and d2 separating the bottom of said third slot (3c; 13c) from the part of the end of the branch (4b; 14b) which defines it which is the furthest away from it, are such that each of the ratios d1/p and d2/p is greater than or equal to 0.3, preferably greater than or equal to 0.4, even more preferably greater than or equal to 0.5; said device (1; 10) being able to reduce the span of the assembly comprising said first (2a; 12a) and second (2b; 12b) arms and said first (4a; 14a) and second (4b; 14b) branches perpendicular to the axis (x-x') from said rest position, on the one hand by elastically bringing each of the branches (4a, 4b; 14a, 14b) closer to the arm (2a, 2b; 12a, 12b) which bears it, and on the other hand by elastically bringing said first (2a; 12a) and second (2b; 12b) arms closer together for the insertion thereof, at least in part, into a bone. - the orthogonal projection on the axis (x-x') of the bottom of each of the second (3b; 13b) and third (3c; 13c) slots is located in said first slot (3a; 13a) at a distance from the bottom of this slot of at least 10%, preferably at least 20%, preferably at least 30%, preferably at least 40%, even more preferably at least 50%, of the depth p; and - the distances d1 separating the bottom of said second slot from the part of the end of the branch (4a; 14a) which defines it which is the furthest away from it, and d2 separating the bottom of said third slot (3c; 13c) from the part of the end of the branch (4b; 14b) which defines it which is the furthest away from it, are such that each of the ratios d1/p and d2/p is greater than or equal to 0.3, preferably greater than or equal to 0.4, even more preferably greater than or equal to 0.5;
Temporary substrate , removable at a removal temperature of above 1000°C and comprising: - a useful semiconductor layer extending along a main plane (x,y), - a support substrate , - an intermediate layer arranged between the useful layer and the support substrate , having a thickness of less than 20 nm along an axis (z) normal to the main plane (x,y), - a bonding interface located in or adjacent to the intermediate layer , - atoms of at least one gaseous species which are distributed according to a concentration profile along the axis (z) normal to the main plane (x,y), with a concentration maximum greater than 10 21 /cm 3 , said atoms remaining trapped in the intermediate layer and/or in an adjacent layer of the support substrate of a thickness less than or equal to 10 nm and/or in an adjacent sub-layer of the useful layer of a thickness less than or equal to 10 nm, when the temporary substrate is subjected to a temperature lower than the removal temperature, and said atoms being intended to diffuse at a detachment interface when the temporary substrate is subjected to a temperature greater than or equal to the removal temperature. - a useful semiconductor layer extending along a main plane (x,y), - a support substrate , - an intermediate layer arranged between the useful layer and the support substrate , having a thickness of less than 20 nm along an axis (z) normal to the main plane (x,y), - a bonding interface located in or adjacent to the intermediate layer , - atoms of at least one gaseous species which are distributed according to a concentration profile along the axis (z) normal to the main plane (x,y), with a concentration maximum greater than 10 21 /cm 3 , said atoms remaining trapped in the intermediate layer and/or in an adjacent layer of the support substrate of a thickness less than or equal to 10 nm and/or in an adjacent sub-layer of the useful layer of a thickness less than or equal to 10 nm, when the temporary substrate is subjected to a temperature lower than the removal temperature, and said atoms being intended to diffuse at a detachment interface when the temporary substrate is subjected to a temperature greater than or equal to the removal temperature.
A system for identifying an internet connected household, ICH , comprising: a computer comprising a memory , a processor and an Internet connection; the processor executing on the computer; the memory storing a set of Internet entity instructions, wherein the set of Internet entity instructions, when executed by the processor , cause the processor to perform operations comprising: receiving an Internet Protocol, IP, address via the Internet connection; determining that the IP address has not changed for a defined time period; based on the determination that the IP address has not changed for the defined time period, determining whether the IP address is associated with an ICH ; receiving global positioning system, GPS, coordinates from a device (704-708) that is utilizing the IP address ; identifying a physical address based on the GPS coordinates, comprising placing the GPS coordinates into a nearest centroid of a physical address determined to be a residence; maintaining a mapping of the IP address to the physical address in a table ; creating, based on the physical address , an anonymous identification; and utilizing the anonymous identification as a universal identification to resolve a new IP address or a new device (704-708) back to the physical address . a computer comprising a memory , a processor and an Internet connection; the processor executing on the computer; the memory storing a set of Internet entity instructions, wherein the set of Internet entity instructions, when executed by the processor , cause the processor to perform operations comprising: receiving an Internet Protocol, IP, address via the Internet connection; determining that the IP address has not changed for a defined time period; based on the determination that the IP address has not changed for the defined time period, determining whether the IP address is associated with an ICH ; receiving global positioning system, GPS, coordinates from a device (704-708) that is utilizing the IP address ; receiving an Internet Protocol, IP, address via the Internet connection; determining that the IP address has not changed for a defined time period; based on the determination that the IP address has not changed for the defined time period, determining whether the IP address is associated with an ICH ; receiving global positioning system, GPS, coordinates from a device (704-708) that is utilizing the IP address ; identifying a physical address based on the GPS coordinates, comprising placing the GPS coordinates into a nearest centroid of a physical address determined to be a residence; maintaining a mapping of the IP address to the physical address in a table ; creating, based on the physical address , an anonymous identification; and utilizing the anonymous identification as a universal identification to resolve a new IP address or a new device (704-708) back to the physical address .
A photoreceptor cartridge comprising: a first assembly comprising a first frame and a photoreceptor that is installed at the first frame; a second assembly comprising a second frame that is detachably combined with the first frame and a cleaning unit that is installed at the second frame and is arranged to clean a surface of the photoreceptor; at least one first biasing member configured to bias the cleaning unit to the photoreceptor; and at least one second biasing member configured to bias the cleaning unit in an opposite direction to a direction in which the first biasing member biases the cleaning unit; wherein each first biasing member is a coil spring that is installed at the first frame, and each second biasing member is a torsion spring that is installed at the second frame. a first assembly comprising a first frame and a photoreceptor that is installed at the first frame; a second assembly comprising a second frame that is detachably combined with the first frame and a cleaning unit that is installed at the second frame and is arranged to clean a surface of the photoreceptor; at least one first biasing member configured to bias the cleaning unit to the photoreceptor; and at least one second biasing member configured to bias the cleaning unit in an opposite direction to a direction in which the first biasing member biases the cleaning unit; wherein each first biasing member is a coil spring that is installed at the first frame, and each second biasing member is a torsion spring that is installed at the second frame.
A loft bed comprising a bed frame and legs , the bed frame being releasably connectable to the legs , the legs being provided with clamping elements which, in the state of being connected to the bed frame , are engaged with counter elements formed on the bed frame , wherein a clamping effect between the clamping elements and the counter elements is provided due to a weight force (S) acting on the bed frame , wherein the legs , in the state of being connected to the bed frame , are tiltable relative to the bed frame due to the weight force (S) acting on the bed frame , whereby the clamping effect is provided.
A method of wireless communication performed by a processor of a transmitting device transmitting a waveform to a receiving device, comprising: obtaining transmit waveform distortion information of the transmitting device; compressing the transmit waveform distortion information of the transmitting device into compressed transmit waveform distortion information using an encoder neural network, wherein the encoder neural network is trained to compress the transmit waveform distortion information of the transmitting device into the compressed transmit waveform distortion information; and sending the compressed transmit waveform distortion information and one or more decoder neural network weights to the receiving device in a configuration that enables the receiving device to use the one or more decoder neural network weights to configure a decoder neural network of the receiving device to recover the transmit waveform distortion information of the transmitting device from the compressed transmit waveform distortion information, wherein the decoder neural network is trained to recover the transmit waveform distortion information of the transmitting device from the compressed transmit waveform distortion information; and wherein the one or more decoder neural network weights are weights of the trained decoder neural network of the transmitting device. obtaining transmit waveform distortion information of the transmitting device; compressing the transmit waveform distortion information of the transmitting device into compressed transmit waveform distortion information using an encoder neural network, wherein the encoder neural network is trained to compress the transmit waveform distortion information of the transmitting device into the compressed transmit waveform distortion information; and sending the compressed transmit waveform distortion information and one or more decoder neural network weights to the receiving device in a configuration that enables the receiving device to use the one or more decoder neural network weights to configure a decoder neural network of the receiving device to recover the transmit waveform distortion information of the transmitting device from the compressed transmit waveform distortion information, wherein the decoder neural network is trained to recover the transmit waveform distortion information of the transmitting device from the compressed transmit waveform distortion information; and wherein the one or more decoder neural network weights are weights of the trained decoder neural network of the transmitting device.
A method for integrated processing of finely dispersed metal-containing waste, including a step mixing metal-containing waste with magnetic field activated water into the state of a pulp, and a step of subjecting the pulp in a reaction chamber to a rotating magnetic field generated by rotating ferromagnetic elements, characterized in that the step of subjecting the pulp to the rotating magnetic field is carried out in a vortex layer with rotation speed of ferromagnetic elements being at least 2800 rpm until a magnetostriction effect and subsequent reduction of metal oxides occurs, after which a step of hydrocyclone separation of the latter is carried out, and in that the magnetic field activated water has a pH of at least 7, and in that an electrolysis process is conducted in the reaction chamber. characterized in that the step of subjecting the pulp to the rotating magnetic field is carried out in a vortex layer with rotation speed of ferromagnetic elements being at least 2800 rpm until a magnetostriction effect and subsequent reduction of metal oxides occurs, after which a step of hydrocyclone separation of the latter is carried out, and in that the magnetic field activated water has a pH of at least 7, and in that an electrolysis process is conducted in the reaction chamber.