mhurhangee/ep-ind-claims huggingface dataset:
A communication apparatus comprising: generation means for generating an Extremely High Throughput, EHT, Multi-User, MU, Physical Layer Protocol Data Unit, PPDU; and transmission means for transmitting the EHT MU PPDU including: a Legacy-Short Training Field, L-STF; a Legacy-Long Training Field, L-LTF, configured to be communicated after the L-STF; a Legacy-Signal Field, L-SIG, configured to be communicated after the L-LTF; a first Signal Field related to an Extremely High Throughput, EHT, configured to be communicated after the L-SIG; a second Signal Field related to EHT configured to be communicated after the first Signal Field related to EHT, the second Signal Field related to EHT at least including: resource unit, RU, Allocation subfields, wherein in a case where the communication apparatus uses a bandwidth of 320 MHz as a bandwidth, the RU Allocation subfields are configured so that a total bit area for indicating information is a predetermined number of bits representing an RU allocation to each sub-band multiplied by 8; an Extremely High Throughput-Short Training Field, EHT-STF, configured to be communicated after the second Signal Field related to EHT; and an Extremely High Throughput-Long Training Field, EHT-LTF, configured to be communicated after the EHT-STF. generation means for generating an Extremely High Throughput, EHT, Multi-User, MU, Physical Layer Protocol Data Unit, PPDU; and transmission means for transmitting the EHT MU PPDU including: a Legacy-Short Training Field, L-STF; a Legacy-Long Training Field, L-LTF, configured to be communicated after the L-STF; a Legacy-Signal Field, L-SIG, configured to be communicated after the L-LTF; a first Signal Field related to an Extremely High Throughput, EHT, configured to be communicated after the L-SIG; a second Signal Field related to EHT configured to be communicated after the first Signal Field related to EHT, the second Signal Field related to EHT at least including: resource unit, RU, Allocation subfields, wherein in a case where the communication apparatus uses a bandwidth of 320 MHz as a bandwidth, the RU Allocation subfields are configured so that a total bit area for indicating information is a predetermined number of bits representing an RU allocation to each sub-band multiplied by 8; an Extremely High Throughput-Short Training Field, EHT-STF, configured to be communicated after the second Signal Field related to EHT; and an Extremely High Throughput-Long Training Field, EHT-LTF, configured to be communicated after the EHT-STF. resource unit, RU, Allocation subfields, wherein in a case where the communication apparatus uses a bandwidth of 320 MHz as a bandwidth, the RU Allocation subfields are configured so that a total bit area for indicating information is a predetermined number of bits representing an RU allocation to each sub-band multiplied by 8; an Extremely High Throughput-Short Training Field, EHT-STF, configured to be communicated after the second Signal Field related to EHT; and an Extremely High Throughput-Long Training Field, EHT-LTF, configured to be communicated after the EHT-STF.
Thread-forming screw comprising a shank (12; 32; 52) having a first end and an opposing second end with a load-application means and comprising a thread (16; 36; 56) extending at least in some areas over the length of the shank (12; 32; 52), at least one wear-indicator means (18; 38; 58) being provided on the thread (16; 36; 56), characterised in that at least one identification means (21, 26; 41, 46) for identifying the at least one wear-indicator means (18; 38) is provided on the screw (11; 31) on the outer face (17; 37) of the shank (12; 32).
Method for connecting a first component to a second component comprising at least the following method steps: a) providing a plurality of nanowires on a first contact surface of the first component, but not on a second contact surface of the second component, b) bringing the first component and the second component together so that the plurality of nanowires are brought into contact with the second contact surface of the second component, and c) heating at least the second contact surface to a temperature of at least 150°C. a) providing a plurality of nanowires on a first contact surface of the first component, but not on a second contact surface of the second component, b) bringing the first component and the second component together so that the plurality of nanowires are brought into contact with the second contact surface of the second component, and c) heating at least the second contact surface to a temperature of at least 150°C.
A SAR system with a radar antenna comprising one or more partial antennas (Pan1,..., Pan6), wherein each partial antenna (Pan1,..., Pan6) comprises a plurality of phase centers (Rad) and transmit/receive modules assigned thereto as well as a signal processing means for the coherent processing of signals of the radiators (Rad), characterized in that the signal processing means comprises a hybrid beam forming module (HBFM) for the digitalization and processing of the analog receive signals received by the transmit/receive modules of the phase centers (Rad), wherein the hybrid beam forming module (HBFM) is embodied to convert the digitally processed receive signals into analog receive signals, and to feed them to an analog receive network, by means of which the analog signals of the respective transmit/receive modules are combined with one another to form an output signal.
A method of operating a mobile floor cleaning robot, the method comprising: using a map of walls, furniture, flooring changes and other obstacles to position and pose the robot at locations far enough away from obstacles and/or flooring changes prior to the application of cleaning fluid; and applying cleaning fluid to areas of floor surface having no known obstacles and/or flooring changes thereon, wherein applying fluid includes spraying liquid to areas of floor surface. using a map of walls, furniture, flooring changes and other obstacles to position and pose the robot at locations far enough away from obstacles and/or flooring changes prior to the application of cleaning fluid; and applying cleaning fluid to areas of floor surface having no known obstacles and/or flooring changes thereon, wherein applying fluid includes spraying liquid to areas of floor surface.
Semiconductor device, comprising a substrate layer made of a semiconductor material of a first conductivity type with a first insulating region, and a plurality of vertical bipolar transistors, wherein the vertical bipolar transistors each comprise: - a first height section of a collector made of monocrystalline semiconductor material of a second conductivity type, said section being arranged in an opening of the first insulating region, - a second insulating region which rests partly on the first height section of the collector and partly on the first insulating region and which in the region of the collector has an opening in which a second height section of the collector made of monocrystalline material is arranged, comprising an inner region of the second conductivity type, - a base made of monocrystalline semiconductor material of the first conductivity type, - a base connection region on the second insulating region which surrounds the base in the lateral direction and which, apart from a seed layer or a metallisation layer, is either partially or completely monocrystalline on the second insulating region, - a T-shaped emitter made of semiconductor material of the second conductivity type, which overlaps the base connection region, wherein - a horizontal bar of the T-shaped emitter overlaps outwards with the respective base connection region, and wherein - the lateral extent of this overlap over the total number of bipolar transistors of the semiconductor device has a variation of a maximum of 10 nanometres. - a first height section of a collector made of monocrystalline semiconductor material of a second conductivity type, said section being arranged in an opening of the first insulating region, - a second insulating region which rests partly on the first height section of the collector and partly on the first insulating region and which in the region of the collector has an opening in which a second height section of the collector made of monocrystalline material is arranged, comprising an inner region of the second conductivity type, - a base made of monocrystalline semiconductor material of the first conductivity type, - a base connection region on the second insulating region which surrounds the base in the lateral direction and which, apart from a seed layer or a metallisation layer, is either partially or completely monocrystalline on the second insulating region, - a T-shaped emitter made of semiconductor material of the second conductivity type, which overlaps the base connection region, wherein - a horizontal bar of the T-shaped emitter overlaps outwards with the respective base connection region, and wherein - the lateral extent of this overlap over the total number of bipolar transistors of the semiconductor device has a variation of a maximum of 10 nanometres.
A computing device (125, 410), comprising: a memory configured to store instructions; and processing circuitry coupled with the memory, the processing circuitry configured to execute the instructions, and when executed, the instructions to cause processing circuitry to: determine to establish a communication connection with a second computing device; detect a contactless card within wireless communication range of the computing device (125, 410); receive an encrypted payload from the contactless card, the encrypted payload comprising an identifier and being encrypted with a key (126, 230) and a cryptographic algorithm by the contactless card, the identifier to uniquely identify a customer associated with the contactless card, the computing device (125, 410), or both; send the encrypted payload and a call number to a service provider system to initiate establishment of the communication connection with the second computing device; and establish the communication connection with the second computing device based on a successful authentication performed by the service provider system utilizing the encrypted payload including the identifier. a memory configured to store instructions; and processing circuitry coupled with the memory, the processing circuitry configured to execute the instructions, and when executed, the instructions to cause processing circuitry to: determine to establish a communication connection with a second computing device; detect a contactless card within wireless communication range of the computing device (125, 410); receive an encrypted payload from the contactless card, the encrypted payload comprising an identifier and being encrypted with a key (126, 230) and a cryptographic algorithm by the contactless card, the identifier to uniquely identify a customer associated with the contactless card, the computing device (125, 410), or both; send the encrypted payload and a call number to a service provider system to initiate establishment of the communication connection with the second computing device; and establish the communication connection with the second computing device based on a successful authentication performed by the service provider system utilizing the encrypted payload including the identifier. determine to establish a communication connection with a second computing device; detect a contactless card within wireless communication range of the computing device (125, 410); receive an encrypted payload from the contactless card, the encrypted payload comprising an identifier and being encrypted with a key (126, 230) and a cryptographic algorithm by the contactless card, the identifier to uniquely identify a customer associated with the contactless card, the computing device (125, 410), or both; send the encrypted payload and a call number to a service provider system to initiate establishment of the communication connection with the second computing device; and establish the communication connection with the second computing device based on a successful authentication performed by the service provider system utilizing the encrypted payload including the identifier.
Method of assembling an assembly comprising the following method steps: - providing individual parts in separate containers, wherein associated with each container is a checking and indicating unit which comprises an indicating element as well as a sensor, by means of which removal of an individual part from the container is checked, - carrying out assembling steps, wherein the individual part required for each assembling step is indicated by activation of the indicating element at the respective container and the correct removal of the individual part from the container is checked by means of the checking and indicating unit, - assembling the assembly in an assembling device, wherein the assembly is assembled in steps in the assembling device by the individual assembling steps, - wherein the assembling device comprises a sensor system by means of which it is checked whether the individual parts required for construction of the assembly are present and by means of which it is checked whether all individual parts of the assembly are arranged therein, wherein in addition the installation positions of the individual parts are checked by means of the sensor, and - wherein an alarm signal is generated if faulty numbers and/or installation positions of the individual parts are registered. - providing individual parts in separate containers, wherein associated with each container is a checking and indicating unit which comprises an indicating element as well as a sensor, by means of which removal of an individual part from the container is checked, - carrying out assembling steps, wherein the individual part required for each assembling step is indicated by activation of the indicating element at the respective container and the correct removal of the individual part from the container is checked by means of the checking and indicating unit, - assembling the assembly in an assembling device, wherein the assembly is assembled in steps in the assembling device by the individual assembling steps, - wherein the assembling device comprises a sensor system by means of which it is checked whether the individual parts required for construction of the assembly are present and by means of which it is checked whether all individual parts of the assembly are arranged therein, wherein in addition the installation positions of the individual parts are checked by means of the sensor, and - wherein an alarm signal is generated if faulty numbers and/or installation positions of the individual parts are registered.
A belt fitting, comprising: a main body member that is formed with an insertion hole through which a belt of a vehicle seatbelt device is inserted, and that is attached to a vehicle; and a projecting portion that is provided at the main body member, and that configures an outer peripheral face of the insertion hole, characterized in that a leading side portion of the projecting portion projects out toward a radial direction outer side of the insertion hole and being apart from a base side portion of the projecting portion along an entire circumferential direction of the insertion hole. a main body member that is formed with an insertion hole through which a belt of a vehicle seatbelt device is inserted, and that is attached to a vehicle; and a projecting portion that is provided at the main body member, and that configures an outer peripheral face of the insertion hole, characterized in that a leading side portion of the projecting portion projects out toward a radial direction outer side of the insertion hole and being apart from a base side portion of the projecting portion along an entire circumferential direction of the insertion hole.
A window arrangement in double-skin form comprising a frame in which an inner glazing and an outer glazing are mounted and a free space is formed between the inner glazing and the outer glazing, wherein the outer glazing is held in the frame by upper, lower and two lateral glass holding bars which are connected to the frame and which are mounted in the free space to the frame, wherein moreover the window arrangement has a solar protection device which is formed by slats mounted to slat pull bands and a drive for the slat pull bands, wherein moreover the solar protection device is arranged in the free space and wherein the glass holding bars are in the form of hollow profile members and the drive of the solar protection device is arranged within the upper glass holding bar at the frame side, which is formed by a U-shaped receiving profile member, characterised in that openings are provided in the back (6.1) of the U-shaped profile member for the slat pull bands to pass therethrough and provided at the ends of the two free limbs of the U-shaped profile is a cover bar which latches between the two limbs of the U-shaped profile member and at its outward surface is provided with an insertion connection oriented perpendicularly to the inner glazing for connection to the frame.
A heat pump water heater having a refrigerant circuit and a water circuit thermally connected through a refrigerant-water heat exchanger that performs heat exchange between a refrigerant and water, wherein said refrigerant circuit includes a compressor, a four-way valve, said refrigerant-water heat exchanger expanding means, and a refrigerant-air heat exchanger, forms a water heating circuit composed by sequentially connecting said compressor, said four-way valve, said refrigerant-water heat exchanger, said expanding means, said refrigerant-air heat exchanger, and said four-way valve, and forms a defrosting operation circuit composed by sequentially connecting said compressor, said four-way valve, said refrigerant-air heat exchanger, said expanding means, said refrigerant-water heat exchanger, and said four-way valve by switching of said four-way valve; and said water circuit includes a water inlet pipeline communicating with said refrigerant-water heat exchanger, characterized in that the water circuit further comprises a water circulating device, a bypass three-way valve, a water tank, and a hot water tank which are sequentially installed in said water inlet pipeline from the upstream side to the downstream side, the hot water tank, a water outlet pipeline that allows the hot water tank to communicate with said refrigerant-water heat exchanger, a water tank three-way valve installed in the water outlet pipeline, a water tank pipeline that allow one of inlets/outlets of the water tank three-way valve to communicate with said water tank, a water tank water circulating device installed in the water tank pipeline, and a bypass pipeline that allows one of inlets/outlets of said bypass three-way valve, said water tank three-way valve of said water outlet pipeline, and said hot water tank to communicate with each other.
A track corner connecting device for a shower door, comprising: an inserting member (21,95) and a receiving member (40,100), the inserting member being fixedly connectable to a first track (12, 91) of the shower door, the receiving member being fixedly connectable to a second track (13, 92) of the shower door, wherein: the receiving member comprises a receiver, the receiver having a receiving chamber (45, 102) therein and being provided with a second opening (52,103) and a third opening (50, 107), the second and third openings being arranged on two adjacent walls of the receiver, and the inserting member being capable of passing through the second opening so as to be mounted in the receiving chamber; characterised in that the inserting member comprises an insert, the insert having a chamber (31, 97) therein and being provided with a first opening; the receiving member further comprises a fixture (60, 104) which is arranged at one side of the third opening, is connected to a first wall of the receiver, and is capable of rotating around a side of the first wall of the receiver and being snap-fitted in the chamber of the inserting member; and an exit-stopping projection is provided on a second wall of the receiving member opposite the first wall, an end of the fixture abutting against the exit-stopping projection. the receiving member comprises a receiver, the receiver having a receiving chamber (45, 102) therein and being provided with a second opening (52,103) and a third opening (50, 107), the second and third openings being arranged on two adjacent walls of the receiver, and the inserting member being capable of passing through the second opening so as to be mounted in the receiving chamber; characterised in that the inserting member comprises an insert, the insert having a chamber (31, 97) therein and being provided with a first opening; the receiving member further comprises a fixture (60, 104) which is arranged at one side of the third opening, is connected to a first wall of the receiver, and is capable of rotating around a side of the first wall of the receiver and being snap-fitted in the chamber of the inserting member; and an exit-stopping projection is provided on a second wall of the receiving member opposite the first wall, an end of the fixture abutting against the exit-stopping projection.
A computer-implemented method of database management in a cloud computing environment, the cloud computing environment including clusters configured to host databases for users in the cloud computing environment, the method comprising: detecting, by a workflow service coupled to the clusters, that a database implemented in the cloud computing environment is in a state of non-use; and as a result of detecting that a database implemented in the cloud computing environment is in a state of non-use, instantiate, by the workflow service, a workload in the cloud computing environment to deactivate the database, wherein the workload is configured to store metadata for the database and database data remotely in cloud storage such that the database can be reactivated at a later time, wherein a deactivation status is indicated in a database table indicating that the database is being deactivated and wherein a new user connection checks the deactivation status and sends a request to the workflow service to reactivate the database. detecting, by a workflow service coupled to the clusters, that a database implemented in the cloud computing environment is in a state of non-use; and as a result of detecting that a database implemented in the cloud computing environment is in a state of non-use, instantiate, by the workflow service, a workload in the cloud computing environment to deactivate the database, wherein the workload is configured to store metadata for the database and database data remotely in cloud storage such that the database can be reactivated at a later time, wherein a deactivation status is indicated in a database table indicating that the database is being deactivated and wherein a new user connection checks the deactivation status and sends a request to the workflow service to reactivate the database.