mhurhangee/patent-ind-claim-en huggingface dataset:
An enhanced vibration prompting method, wherein the method is applicable to an electronic device, and the method comprises: detecting (S403), by the electronic device, a first event, wherein music corresponding to the first event comprises: a first sub-segment and a second sub-segment; and vibrating (S404), by the electronic device, at a first intensity within a first time, and vibrating at a second intensity within a second time, characterised in that : the first time, the first intensity, the second time, and the second intensity conform to any one or more of the following: both the first intensity and the second intensity are greater than or equal to a third intensity, and the third intensity corresponds to the strongest music intensity in the first sub-segment and the second sub-segment; when duration of the first sub-segment is less than or equal to a first value, a length of the first time is greater than the duration; or when a time interval between the first sub-segment and the second sub-segment is greater than or equal to a second value, an interval between the first time and the second time is less than the time interval. detecting (S403), by the electronic device, a first event, wherein music corresponding to the first event comprises: a first sub-segment and a second sub-segment; and vibrating (S404), by the electronic device, at a first intensity within a first time, and vibrating at a second intensity within a second time, characterised in that : the first time, the first intensity, the second time, and the second intensity conform to any one or more of the following: both the first intensity and the second intensity are greater than or equal to a third intensity, and the third intensity corresponds to the strongest music intensity in the first sub-segment and the second sub-segment; when duration of the first sub-segment is less than or equal to a first value, a length of the first time is greater than the duration; or when a time interval between the first sub-segment and the second sub-segment is greater than or equal to a second value, an interval between the first time and the second time is less than the time interval. both the first intensity and the second intensity are greater than or equal to a third intensity, and the third intensity corresponds to the strongest music intensity in the first sub-segment and the second sub-segment; when duration of the first sub-segment is less than or equal to a first value, a length of the first time is greater than the duration; or when a time interval between the first sub-segment and the second sub-segment is greater than or equal to a second value, an interval between the first time and the second time is less than the time interval.
A method of identifying opposing ends of a cable within a cabling assembly having a plurality of cables, the method comprising: providing a plurality of cables, each cable having an exposed proximal end and a hidden distal end , the hidden distal end being connected to a respective electrode , the hidden distal end and respective electrode of each of the plurality of cables being arranged within a tip section of the cabling assembly ; and installing the tip section of the cabling assembly within an opening of a housing to couple the electrode associated with each cable of the plurality of cables to a respective connector of a plurality of connectors; transmitting a signal to the exposed proximal end of a cable of the plurality of cables; receiving the signal at the hidden distal end of the cable of the plurality of cables; transmitting an output signal from the connector operably coupled to the hidden distal end of the cable of the plurality of cables to a processor , wherein the connector is one of a plurality of connectors; and identifying using an indicator device the connector of the plurality of connectors that is operably coupled to hidden distal end of the cable . providing a plurality of cables, each cable having an exposed proximal end and a hidden distal end , the hidden distal end being connected to a respective electrode , the hidden distal end and respective electrode of each of the plurality of cables being arranged within a tip section of the cabling assembly ; and installing the tip section of the cabling assembly within an opening of a housing to couple the electrode associated with each cable of the plurality of cables to a respective connector of a plurality of connectors; transmitting a signal to the exposed proximal end of a cable of the plurality of cables; receiving the signal at the hidden distal end of the cable of the plurality of cables; transmitting an output signal from the connector operably coupled to the hidden distal end of the cable of the plurality of cables to a processor , wherein the connector is one of a plurality of connectors; and identifying using an indicator device the connector of the plurality of connectors that is operably coupled to hidden distal end of the cable .
A lock mechanism including a housing, for a tubular member , which attaches and detaches the tubular member relative to the housing by engaging and disengaging the lock member provided in the housing relative to an engagement portion of the tubular member , wherein the lock member is axially supported turnably on the housing , and includes an urging device provided between the lock member and the housing , and the urging device switches an urging direction in accordance with a turning angle of the lock member to urge the lock member in a locking direction of engaging with the tubular member and a releasing direction of disengaging from the tubular member , characterized in that the urging device is a torsion spring , engages one end side of the torsion spring with a housing side, and engages another end side with a lock member side.
Centrifugal force pendulum which can be mounted such that it can be rotated about a rotational axis , - having a pendulum flange , a first pendulum mass , a second pendulum mass and at least one spring device , - the first pendulum mass and the second pendulum mass being coupled in each case to the pendulum flange , - the second pendulum mass being arranged spaced apart in the circumferential direction from the first pendulum mass , - the spring device being arranged in the circumferential direction between the first pendulum mass and the second pendulum mass , - characterized in that - a protective device is provided in the circumferential direction between the spring device and at least one of the two pendulum masses , - the protective device preferably being pressed into one end of the spring device , - at least one holding device being provided, - the holding device being connected in a positively locking manner to one of the two pendulum masses , - the holding device comprising a pin section , - the protective device having a receptacle , - the receptacle being arranged substantially centrally in the protective device , - the pin section of the holding device engaging through the receptacle and fastening the protective device to the holding device . - having a pendulum flange , a first pendulum mass , a second pendulum mass and at least one spring device , - the first pendulum mass and the second pendulum mass being coupled in each case to the pendulum flange , - the second pendulum mass being arranged spaced apart in the circumferential direction from the first pendulum mass , - the spring device being arranged in the circumferential direction between the first pendulum mass and the second pendulum mass , - characterized in that - a protective device is provided in the circumferential direction between the spring device and at least one of the two pendulum masses , - the protective device preferably being pressed into one end of the spring device , - at least one holding device being provided, - the holding device being connected in a positively locking manner to one of the two pendulum masses , - the holding device comprising a pin section , - the protective device having a receptacle , - the receptacle being arranged substantially centrally in the protective device , - the pin section of the holding device engaging through the receptacle and fastening the protective device to the holding device .
A nanoparticle composition comprising a plurality of nanoparticles formed from a π-conjugated cross-linked polymer, the π-conjugated cross-linked polymer comprising a) 80-99.9 mol.% of π-conjugated monomers, and b) 0.1-20 mol.% of a cross-linker having the formula III shown below: wherein the nanoparticles forming the nanoparticle composition have a Z-average particle size of less than 30-200 nm, when measured by DLS in water. a) 80-99.9 mol.% of π-conjugated monomers, and b) 0.1-20 mol.% of a cross-linker having the formula III shown below: wherein the nanoparticles forming the nanoparticle composition have a Z-average particle size of less than 30-200 nm, when measured by DLS in water.
Interferometer system, including optical means arranged for directing light along a first interferometer path and second interferometer path, and for combining the light for allowing interferometry, wherein the first interferometer path (P1) is provided with a first light transmitting structure having a rotational position that is adjustable with respect to an optical axis of the first path, characterized in that the system includes a removal or displacement means for automatically removing and/or replacing the first light transmitting structure from and/or back into the first interferometer path (P1). wherein the first interferometer path (P1) is provided with a first light transmitting structure having a rotational position that is adjustable with respect to an optical axis of the first path, characterized in that the system includes a removal or displacement means for automatically removing and/or replacing the first light transmitting structure from and/or back into the first interferometer path (P1).
A method for routing data packets in a telecommunications network, which comprises at least two end-points configured to run respective application processes through respective sockets so as to exchange data packets with one another within a communication session, and at least one network node interposed between the two end-points and programmed with data packet routing rules, the method comprising: - on the part of the socket of the end-point starting the communication session, adding, in each data packet to be sent, first items (ST) of information, which univocally identify, in the telecommunications network, the related running application process and a desired network service for this application process ; - on the part of the network node , reading said first items (ST) of information from each data packet received by the network node ; and - on the part of the network node , applying (103-111) the routing rules to the data packet based on the first items (ST) of information. - on the part of the socket of the end-point starting the communication session, adding, in each data packet to be sent, first items (ST) of information, which univocally identify, in the telecommunications network, the related running application process and a desired network service for this application process ; - on the part of the network node , reading said first items (ST) of information from each data packet received by the network node ; and - on the part of the network node , applying (103-111) the routing rules to the data packet based on the first items (ST) of information.
A method for preparing a composition for culturing a brain organoid, comprising: (a) decellularizing brain tissue, wherein the brain tissue is stirred in a decellularizing solution and 95% or more of cells of the brain tissue is removed by the decellularization; (b) drying the brain tissue; and (c) gelating the brain tissue, wherein the brain tissue and Matrigel are mixed to obtain a hydrogel containing a decellularized brain extracellular matrix (dBEM) in an amount of 0.01 to 2.0 mg/mL. (a) decellularizing brain tissue, wherein the brain tissue is stirred in a decellularizing solution and 95% or more of cells of the brain tissue is removed by the decellularization; (b) drying the brain tissue; and (c) gelating the brain tissue, wherein the brain tissue and Matrigel are mixed to obtain a hydrogel containing a decellularized brain extracellular matrix (dBEM) in an amount of 0.01 to 2.0 mg/mL.
A non-pneumatic tire assembly , comprising a non-pneumatic tire , said non-pneumatic tire including: an inner circumferential ring and an outer circumferential ring defining an annular space between said circumferential rings and a cylindrical space inside said inner circumferential ring; a plurality of partitions within said annular space, wherein said partitions connect said circumferential rings; a ground-contacting tread located on said outer circumferential ring; a rim , said rim comprises two pieces , and said rim is located within said cylindrical space; and a hub , said hub is removably connected to said rim, the non-pneumatic tire assembly being characterized in that each of said two rim pieces further comprises a ridge and a valley , wherein the ridge from one of said two pieces of said rim is aligned with the ridge from the other of said two pieces of said rim to form a cavity between the two pieces of the rim, wherein said hub further comprises a lug , which is configured to interact with said cavity in order to limit rotation of said hub relative to said rim. an inner circumferential ring and an outer circumferential ring defining an annular space between said circumferential rings and a cylindrical space inside said inner circumferential ring; a plurality of partitions within said annular space, wherein said partitions connect said circumferential rings; a ground-contacting tread located on said outer circumferential ring;
A nucleoside derivative represented by the following general formula : in the formula, R 1 represents a hydrogen or halogen atom, R 2 represents a hydrogen or halogen atom, R 3 represents a cyano group, R 4 represents an amino group, a hydrogen atom, a halogen atom, or a hydroxy group, R 5 represents a nitrogen atom or a methine group, R 6 represents a hydrogen atom or a hydroxy group, and R 7 represents a hydrogen atom or a hydroxy group.
Method for finding a next edge cloud for a mobile user device in a mobile communication network for cloud processing, wherein the network comprises at least two base stations with computing access point functionality and the base stations being part of a mobile edge computing, MEC, cloud, wherein the method comprises the steps of: a) the mobile user device sending a request for usage privilege for cloud processing to a connecting base station, b) the connecting base station accepting the cloud processing request, c) the mobile user device offloading computation processing data to the mobile edge computing cloud via the connecting base station and the mobile user device also sending current localization information of the mobile user device to the connecting base station, d) the mobile edge computing cloud processing the computation processing data and determining an expected next base station based on the received localization information, e) the mobile edge computing cloud delivering the processed computation processing data to the determined expected next base station, when the user mobile device has moved from the network cell serviced by the connecting base station to the network cell of the determined expected next base station or to the connecting base station, when the mobile user device has not moved out of the network cell serviced by the connecting base station; wherein in step e) the mobile edge computing cloud predicts a possible route of the mobile user device based on the current localization information of the mobile user device and based on a history of localization information of the mobile user device with a machine learning algorithm, and wherein for each mobile user device a history of localization is stored in the mobile edge computing cloud. a) the mobile user device sending a request for usage privilege for cloud processing to a connecting base station, b) the connecting base station accepting the cloud processing request, c) the mobile user device offloading computation processing data to the mobile edge computing cloud via the connecting base station and the mobile user device also sending current localization information of the mobile user device to the connecting base station, d) the mobile edge computing cloud processing the computation processing data and determining an expected next base station based on the received localization information, e) the mobile edge computing cloud delivering the processed computation processing data to the determined expected next base station, when the user mobile device has moved from the network cell serviced by the connecting base station to the network cell of the determined expected next base station or to the connecting base station, when the mobile user device has not moved out of the network cell serviced by the connecting base station;
Hob apparatus (10a; 10b; 10c) with at least one cooking region (12a; 12b: 12c), with at least one switch-off region (14a; 14b; 14c) and with at least one delay unit (16a; 16b; 16c), which is arranged at least partially between the cooking region (12a; 12b: 12c) and the switch-off region (14a; 14b; 14c) and is provided to delay a flow of a liquid (48a, 48b; 48c) from the cooking region (12a; 12b: 12c) into the switch-off region (14a; 14b; 14c), characterised in that the delay unit (16a; 16b; 16c) has at least one hydrophobic delay element (22a; 22b; 22c), wherein the hydrophobic delay element (22a; 22b; 22c) is embodied as a coating.
A sound-absorbing member comprising a Helmholtz resonance structure including an inlet passage and a hollow portion connected to the outside through the inlet passage, wherein the sound-absorbing member includes a first layer and a second layer disposed on the first layer , the first layer includes a first main surface and a second main surface opposite to the first main surface , the second layer includes a third main surface facing the second main surface and a fourth main surface opposite to the third main surface , the first layer includes a first through-hole penetrating through the second main surface from the first main surface and defining the inlet passage, the second main surface includes a second main surface opening defining an end portion of the first through-hole and a second main surface flat portion , the third main surface includes a third main surface opening defining an end portion of the hollow portion and a third main surface flat portion , the second main surface opening has an opening area smaller than the opening area of the third main surface opening , and a first air layer is formed at least at a portion between the second main surface flat portion and the third main surface flat portion , characterized in that the hollow portion has its bottom in the second layer . a Helmholtz resonance structure including an inlet passage and a hollow portion connected to the outside through the inlet passage, wherein the sound-absorbing member includes a first layer and a second layer disposed on the first layer , the first layer includes a first main surface and a second main surface opposite to the first main surface , the second layer includes a third main surface facing the second main surface and a fourth main surface opposite to the third main surface , the first layer includes a first through-hole penetrating through the second main surface from the first main surface and defining the inlet passage, the second main surface includes a second main surface opening defining an end portion of the first through-hole and a second main surface flat portion , the third main surface includes a third main surface opening defining an end portion of the hollow portion and a third main surface flat portion , the second main surface opening has an opening area smaller than the opening area of the third main surface opening , and a first air layer is formed at least at a portion between the second main surface flat portion and the third main surface flat portion , characterized in that the hollow portion has its bottom in the second layer .
A system operative to perform secure operations, comprising: an I/O subsystem ; a memory subsystem ; and a plurality of processors (121 - 123, 125) to execute a plurality of processes in a plurality of trusted execution environments, in the following also referred to as TEEs, each of the TEEs is identified by a corresponding access identifier, in the following also referred to as AID, and protected by a corresponding system resource protection unit, in the following also referred to as SRPU, (151 - 156), wherein the corresponding SRPU (151 - 153) of a TEE includes instructions, when executed by a corresponding processor (121 - 123) cause the corresponding processor (121 - 123) to control access to the TEE by checking a data structure including allowed AIDs and pointers to memory locations accessible by the allowed AIDs and rejecting access from another TEE identified by the AID that is not one of the allowed AIDs to the TEE, characterized in in that the plurality of processors (121 - 123, 125) are further to execute a plurality of processes in a plurality of rich execution environments, in the following also referred to as REEs, each of the REEs is identified by a corresponding AID, and protected by a corresponding SRPU (151 - 156), wherein, when executed by a corresponding one of the processors (121 - 123), a monitor process in each TEE is operative to detect an attack on the TEE and cause an AID of the TEE to be removed from all data structures used by all SRPUs (151 - 157) in the system. an I/O subsystem ; a memory subsystem ; and a plurality of processors (121 - 123, 125) to execute a plurality of processes in a plurality of trusted execution environments, in the following also referred to as TEEs, each of the TEEs is identified by a corresponding access identifier, in the following also referred to as AID, and protected by a corresponding system resource protection unit, in the following also referred to as SRPU, (151 - 156), wherein the corresponding SRPU (151 - 153) of a TEE includes instructions, when executed by a corresponding processor (121 - 123) cause the corresponding processor (121 - 123) to control access to the TEE by checking a data structure including allowed AIDs and pointers to memory locations accessible by the allowed AIDs and rejecting access from another TEE identified by the AID that is not one of the allowed AIDs to the TEE, characterized in in that the plurality of processors (121 - 123, 125) are further to execute a plurality of processes in a plurality of rich execution environments, in the following also referred to as REEs, each of the REEs is identified by a corresponding AID, and protected by a corresponding SRPU (151 - 156), wherein, when executed by a corresponding one of the processors (121 - 123), a monitor process in each TEE is operative to detect an attack on the TEE and cause an AID of the TEE to be removed from all data structures used by all SRPUs (151 - 157) in the system.