mhurhangee/patent-ind-claim-en huggingface dataset:
A battery, comprising: a battery housing with an electrical connection consisting of a first positive direct current (DC) terminal and a first negative DC terminal , and further comprising therein: at least one battery cell coupled through respective connections with the first positive and negative DC terminals ; a first receiver having an input and an output; a first transmitter having an input and an output; a first digital processor and memory , the first digital processor is coupled to the output of the first receiver and to the input of the first transmitter , a first RF coupler configured to provide data signals for the input of the first receiver and configured to receive data signals that are output by the first transmitter , wherein the first receiver is a RF receiver and the first transmitter is a RF transmitter, and wherein the first RF coupler is located between the first positive DC terminal and the at least one battery cell and configured to provide a galvanic isolated capacitive or inductive coupling with the connection between the at least one battery cell and the first positive DC terminal , and wherein RF is short for Radio Frequency; characterized by a first DC power switch coupled between the at least one battery cell and the first positive DC terminal , wherein the first DC power switch is coupled to and controlled by the first digital processor which is configured to deactivate the first DC power switch in case of unauthorized use of the battery. at least one battery cell coupled through respective connections with the first positive and negative DC terminals ; a first receiver having an input and an output; a first transmitter having an input and an output; a first digital processor and memory , the first digital processor is coupled to the output of the first receiver and to the input of the first transmitter , a first RF coupler configured to provide data signals for the input of the first receiver and configured to receive data signals that are output by the first transmitter , wherein the first receiver is a RF receiver and the first transmitter is a RF transmitter, and wherein the first RF coupler is located between the first positive DC terminal and the at least one battery cell and configured to provide a galvanic isolated capacitive or inductive coupling with the connection between the at least one battery cell and the first positive DC terminal , and wherein RF is short for Radio Frequency; characterized by a first DC power switch coupled between the at least one battery cell and the first positive DC terminal , wherein the first DC power switch is coupled to and controlled by the first digital processor which is configured to deactivate the first DC power switch in case of unauthorized use of the battery.
A computer-implemented method of evaluating a skin lesion for determining malignant or non-malignant tissue by developing a full digital data map representing a skin lesion for conversion to audio signals, the method comprising: generating segmentation of a tissue image of a skin lesion by a computer aided classification system, wherein similar types of tissue or features are grouped into one segment to provide a plurality of different segments comprising different types of tissue or features; classifying each of the plurality of segments to provide a plurality of classified segments; applying a clustering process to the classified segments to provide a plurality of clusters; and applying a specific audio signal for each of the plurality of clusters using sonification techniques to provide an audio output indicating either malignant or non-malignant tissue. generating segmentation of a tissue image of a skin lesion by a computer aided classification system, wherein similar types of tissue or features are grouped into one segment to provide a plurality of different segments comprising different types of tissue or features; classifying each of the plurality of segments to provide a plurality of classified segments; applying a clustering process to the classified segments to provide a plurality of clusters; and applying a specific audio signal for each of the plurality of clusters using sonification techniques to provide an audio output indicating either malignant or non-malignant tissue.
A method for peer-to-peer, P2P, communication in a wireless local area network, WLAN, the method comprising: communicating, from a first peer wireless station , first peer P2P capability data to a second peer wireless station using a capability discovery protocol request, wherein the first peer P2P capability data describes the first peer wireless station's capability information for a P2P connection; receiving second peer P2P capability data from the second peer wireless station using a capability discovery protocol response, wherein the second peer P2P capability data describes the second peer wireless station's capability information for the P2P connection, wherein the second peer P2P capability data includes a counter-proposal of the first peer P2P capability data sent by the first peer wireless station based on a capability of the second peer wireless station for P2P communication; and establishing, by the first peer wireless station , the P2P connection between the first peer wireless station and the second peer wireless station based on the second peer P2P capability data; wherein at least one of the first and second peer P2P capability data comprises data indicative of a capability of the first peer wireless station for Direct Link Setup, DLS; and characterized in that at least one of the first and second peer P2P capability data includes information defined in an XML schema. communicating, from a first peer wireless station , first peer P2P capability data to a second peer wireless station using a capability discovery protocol request, wherein the first peer P2P capability data describes the first peer wireless station's capability information for a P2P connection; receiving second peer P2P capability data from the second peer wireless station using a capability discovery protocol response, wherein the second peer P2P capability data describes the second peer wireless station's capability information for the P2P connection, wherein the second peer P2P capability data includes a counter-proposal of the first peer P2P capability data sent by the first peer wireless station based on a capability of the second peer wireless station for P2P communication; and establishing, by the first peer wireless station , the P2P connection between the first peer wireless station and the second peer wireless station based on the second peer P2P capability data; wherein at least one of the first and second peer P2P capability data comprises data indicative of a capability of the first peer wireless station for Direct Link Setup, DLS; and characterized in that at least one of the first and second peer P2P capability data includes information defined in an XML schema.
A device for at least partially automatically actuating a door leaf , with at least one drive for actuating the door leaf and with a casing element for guiding the door leaf , wherein the drive includes at least one drive axis of rotation (3.1), wherein a lever kinematics with at least one lever element (5.1) is supported at least at one first bearing (6.1) rotationally mobile about the drive axis of rotation (3.1), wherein the drive axis of rotation (3.1) is disposed at the drive and drivable by means of the drive , and wherein the lever kinematics is disposed at least at one second bearing (6.2) rotationally mobile about a casing axis of rotation (4.1), wherein the casing axis of rotation (4.1) is disposed at the casing element and is guidable by means of the casing element , whereby the door leaf is transferable into an opened position (I) and/or a closed position (II), wherein the lever kinematics includes at least one connecting means for transmitting electrical energy and/or data between at least one energy source (8.1) and an energy recipient (8.2) on the door leaf , wherein the connecting means are guided section-wise through a rotation space and transversely through the drive axis of rotation (3.1) and/or the casing axis of rotation (4.1), wherein at an entry location (3.3, 3.4) the connecting means is lead into the rotation space of the drive and/or of the casing element and, at an exit location (3.4, 4.4) is lead out of the rotation space , characterized in that the connecting means includes a vertex (SP) in the drive axis of rotation (3.1) and/or the casing axis of rotation (4.1), such that the connecting means forms a first branch (7.1) between the entry location (3.3, 4.3) and the vertex (SP) and a second branch (7.2) between the vertex (SP) and the exit location (3.4, 4.4).
A multiple antenna system, MAS, with multi-user, MU, transmissions, MU-MAS, comprising of a plurality of base stations sharing a same cell ID and a plurality of user devices, wherein: the MU-MAS exploits reciprocity between downlink, DL, and uplink, UL, channels; the MU-MAS further comprises one or more beacon stations employed for radio frequency, RF, calibration within the MU-MAS; each base station comprises one or more antennas, each antenna coupled to an RF chain; and each user device comprises one or more antennas, each antenna coupled to an RF chain; Characterised in that: the RF calibration is obtained by pre-conditioning a matrix of uplink channel estimates H UL with a complex RF calibration matrix C , wherein the pre-conditioning is given as H DL = C H UL † wherein H DL is a matrix of downlink channel estimates between the base stations and the user devices and wherein the matrix C is computed from an effective downlink channel and uplink channel vectors between each of the plurality of base stations and each of the one or more beacon stations. the MU-MAS exploits reciprocity between downlink, DL, and uplink, UL, channels; the MU-MAS further comprises one or more beacon stations employed for radio frequency, RF, calibration within the MU-MAS; each base station comprises one or more antennas, each antenna coupled to an RF chain; and each user device comprises one or more antennas, each antenna coupled to an RF chain; Characterised in that: the RF calibration is obtained by pre-conditioning a matrix of uplink channel estimates H UL with a complex RF calibration matrix C , wherein the pre-conditioning is given as H DL = C H UL † wherein H DL is a matrix of downlink channel estimates between the base stations and the user devices and wherein the matrix C is computed from an effective downlink channel and uplink channel vectors between each of the plurality of base stations and each of the one or more beacon stations.
An indoor unit of an air conditioner, wherein the indoor unit comprises: a housing defining an accommodating cavity and comprising: a chassis positioned in an up-down direction; and a plurality of elastic plates connected with a lower edge of the chassis and extended downwards; an air passage structure , detachably disposed in the accommodating cavity and wherein the air passage structure is configured to elastically abut against at least one of the plurality of elastic plates when being pulled out or pushed in; characterised in that the plurality of elastic plates are disposed at uniform intervals along a length direction of the chassis . a housing defining an accommodating cavity and comprising: a chassis positioned in an up-down direction; and a plurality of elastic plates connected with a lower edge of the chassis and extended downwards; a chassis positioned in an up-down direction; and a plurality of elastic plates connected with a lower edge of the chassis and extended downwards; an air passage structure , detachably disposed in the accommodating cavity and wherein the air passage structure is configured to elastically abut against at least one of the plurality of elastic plates when being pulled out or pushed in; characterised in that the plurality of elastic plates are disposed at uniform intervals along a length direction of the chassis .
Household refrigeration appliance with a refrigerator compartment which is bounded by walls of an inner container and can be closed at the front by a door , and a freezer compartment embodied in the refrigerator compartment , which is bounded by freezer compartment walls (7 to 11) and can be closed at the front by a freezer compartment door , wherein the freezer compartment is embodied inside the refrigerator compartment , wherein the refrigerator compartment and the freezer compartment door can be closed at the front by the door which is embodied to close the freezer compartment at the front and to cover the freezer compartment door , and wherein in the closed state of the freezer compartment door an air gap is formed and bounded between this and at least one adjacent freezer compartment wall (7 to 11), characterised in that the air gap has a non-linear air gap portion at least in a longitudinal half facing an interior of the freezer compartment .
A cell encapsulation device comprising: a first layer sealed along a portion of its periphery to a second layer along a portion of its periphery to define a chamber comprising a first interior surface and an opposing second interior surface, wherein the first interior surface is spaced apart in the chamber from the second interior surface; and structural spacers disposed within the chamber to maintain an average distance between the first interior surface and the second interior surface along a length and/or width of the chamber and to interconnect said first interior surface and said second interior surface, wherein the structural spacers further define at least one reservoir space for the placement of cells within the chamber, wherein both the first and second layers are a composite layer comprising: a) an outer porous layer; and b) an inner porous layer adjacent to the outer porous layer, wherein the inner porous layer has a porosity that is less than the outer porous layer, and wherein a portion of the inner porous layer is the first or second interior surface, wherein the structural spacers are adhered to the inner porous layers of the first and second composite layers via an adhesive and the adhesive does not penetrate into the pores of the outer porous layers of the first and second composite layers. a first layer sealed along a portion of its periphery to a second layer along a portion of its periphery to define a chamber comprising a first interior surface and an opposing second interior surface, wherein the first interior surface is spaced apart in the chamber from the second interior surface; and structural spacers disposed within the chamber to maintain an average distance between the first interior surface and the second interior surface along a length and/or width of the chamber and to interconnect said first interior surface and said second interior surface, wherein the structural spacers further define at least one reservoir space for the placement of cells within the chamber, wherein both the first and second layers are a composite layer comprising: a) an outer porous layer; and b) an inner porous layer adjacent to the outer porous layer, a) an outer porous layer; and b) an inner porous layer adjacent to the outer porous layer, wherein the inner porous layer has a porosity that is less than the outer porous layer, and wherein a portion of the inner porous layer is the first or second interior surface, wherein the structural spacers are adhered to the inner porous layers of the first and second composite layers via an adhesive and the adhesive does not penetrate into the pores of the outer porous layers of the first and second composite layers.
A photovoltaic apparatus comprising: a concentrator photovoltaic panel; a driving device configured to change at least one of the elevation angle and the azimuth angle of the concentrator photovoltaic panel; a current detection unit (A1-A3) configured to detect an output current of the concentrator photovoltaic panel; and a control unit configured to cause the driving device to drive the concentrator photovoltaic panel to an elevation and/or azimuth angle in which the concentrator photovoltaic panel does not face the sun when it is determined based on a detection result of the current detection unit (A1-A3) that the concentrator photovoltaic panel is generating no power during tracking of the sun. a concentrator photovoltaic panel; a driving device configured to change at least one of the elevation angle and the azimuth angle of the concentrator photovoltaic panel; a current detection unit (A1-A3) configured to detect an output current of the concentrator photovoltaic panel; and a control unit configured to cause the driving device to drive the concentrator photovoltaic panel to an elevation and/or azimuth angle in which the concentrator photovoltaic panel does not face the sun when it is determined based on a detection result of the current detection unit (A1-A3) that the concentrator photovoltaic panel is generating no power during tracking of the sun.
Motor component for a linear motor , wherein at least one first primary section , comprising at least two first electromagnetic coils , and a second primary section , comprising at least two second electromagnetic coils , wherein the first and second primary section are arranged essentially parallel to each other, wherein for the first and second primary sections at least one common laminated core unit is provided, comprising single-piece sheet metal elements , and that each of the single-piece sheet metal elements of the laminated core unit comprises at least three first recesses each, arranged one behind the other in the longitudinal direction of an adjustment path of the linear motor , for the first coils of the first primary section and at the same time at least three second recesses , arranged one behind the other in the longitudinal direction of an adjustment path of the linear motor , for the second coils of the second primary section , wherein at least one cooling recess of the laminated core unit for cooling the first and/or second primary section is arranged between the first and second recesses and/or between the first and second coils and/or between the first and second primary sections , wherein at least one cooling unit is arranged in the cooling recess , characterised in that the cooling unit comprises ducts for guiding coolant, wherein at least the laminated core unit and the cooling unit are each designed as a plate and/or an essentially uniformly thick layer/structure, so that heat sink ducts and windings arranged in the recesses of the laminated core unit run in parallel planes as a heat source, and that the laminated core unit and the cooling unit are connected together in a sandwich-type construction.
A relay apparatus comprising: a communication unit configured to relay first encoded data used for playback at first quality and second encoded data used for playback at second quality higher than the first quality, for same temporally continuous content transmitted from a transmission apparatus to a reception apparatus , and relay first position information relating to a data position transmitted from the reception apparatus to the transmission apparatus ; a storage unit ; and a control unit configured to determine whether to cause the storage unit to hold the first encoded data, on the basis of a format of the first encoded data relayed from the communication unit, wherein the communication unit relays the first encoded data, and thereafter, relays the first position information, and relays a portion of the second encoded data corresponding to the first position information. a communication unit configured to relay first encoded data used for playback at first quality and second encoded data used for playback at second quality higher than the first quality, for same temporally continuous content transmitted from a transmission apparatus to a reception apparatus , and relay first position information relating to a data position transmitted from the reception apparatus to the transmission apparatus ; a storage unit ; and a control unit configured to determine whether to cause the storage unit to hold the first encoded data, on the basis of a format of the first encoded data relayed from the communication unit, wherein the communication unit relays the first encoded data, and thereafter, relays the first position information, and relays a portion of the second encoded data corresponding to the first position information.
A nacelle for a wind turbine , the nacelle comprising: - a nacelle housing ; - a rotor hub ; - a rotor bearing for bearing the rotor hub on the nacelle housing , wherein the rotor bearing comprises a sliding bearing , the sliding bearing comprising: - an inner ring element ; - an outer ring element ; - at least one sliding bearing element , which is arranged between the inner ring element and the outer ring element , wherein the sliding bearing element has multiple sliding bearing pads , characterized in that the individual sliding bearing pads each have a bearing surface , which is configured in the shape of a spherical cap. - a nacelle housing ; - a rotor hub ; - a rotor bearing for bearing the rotor hub on the nacelle housing , wherein the rotor bearing comprises a sliding bearing , the sliding bearing comprising: - an inner ring element ; - an outer ring element ; - at least one sliding bearing element , which is arranged between the inner ring element and the outer ring element , the sliding bearing element has multiple sliding bearing pads , characterized in that the individual sliding bearing pads each have a bearing surface , which is configured in the shape of a spherical cap.