mhurhangee/ep-ind-claims huggingface dataset:
A no-frost refrigerator unit and/or freezer unit comprising a fan for the generation of an airflow in a compartment of the unit to be cooled, wherein the unit comprises detection means for the detection of at least one parameter as well as a control or regulation unit which is made such that it varies the speed of the fan in dependence on the at least one measured parameter, characterized in that the at least one operating parameter is an operating state of the unit, with the operating state including the states "defrosting phase" and "normal operation", with the unit being operated in normal operation at a nominal speed and the speed of the fan being increased for a certain period of time before and immediately after a defrosting phase.
An earphone, comprising a switch button set (S0, S1, S2), a microphone (Mic), a voltage-controlled switch and two or more than two earphone remote control circuits, wherein different earphone remote control circuits are earphone remote control circuits that correspond to different smartphone operating systems, respectively; the voltage-controlled switch is connected to the switch button set (S0, S1, S2), the microphone (Mic) and the two or more than two earphone remote control circuits, and a voltage input terminal of the voltage-controlled switch is connected to a microphone-connected terminal of the earphone; wherein different input voltages of the microphone-connected terminal of the earphone correspond to different smartphone operating systems, and the voltage controlled switch is configured to connect, according to a voltage range that the voltage value of the microphone-connected terminal of the earphone falls into, the switch button set (S0, S1, S2) and the microphone (Mic) to the earphone remote control circuit corresponding to the operating system of the smartphone.
A filtering device of a kitchen hood comprising a suction channel having a collecting section with the filtering device inserted therein, said filtering device comprising a flat filtering panel inserted or comprised in a support frame, said filtering panel covers the entire inner region of the support frame, and wherein the side of the filtering device facing the suction channel is provided with at least one directing device formed by means of a plurality of louvres in a manner of the Venetian blind, each said louvre being rotatable about its longitudinal axis, characterized in that said directing device comprises a directing frame formed of a first pair and a second pair of mutually parallel sides (13'; 13"), each side (13") from a second pair of mutually parallel sides (13") is formed in a sense of saw blade and with a plurality of approximately triangularly shaped teeth, free flanks and, respectively, flanks thereof are set at an angle (α) and, respectively, at an angle (β) with respect to the general horizontal extension of the filtering device, wherein in said directing frame louvres are disposed between each tooth of the first side from the pair of mutually parallel sides (13") and each opposite tooth of the second side from the pair of mutually parallel sides (13") at an inclination angle (β) with respect to the general horizontal extension of the directing device, said louvres being pivotable about its longitudinal axis which is in essence parallel with a filtering panel, and in said directing frame directing walls are disposed at an inclination angle (α) with respect to the general horizontal extension of the directing device, wherein said louvre abuts against a second flank of each tooth, said directing walls extending substantially in parallel with the louvres and resembling equal inclination and, respectively, equal angle (α) with respect to the general horizontal extension of the filtering device as said free flank of the tooth, and wherein said inclination angle (α) of said first flank is preferably greater than said inclination angle (β) of said second flank, and wherein said inclination angle (α; β) is greater than approximately 45°.
A method for modulating a source binary sequence formed by a plurality of source words, delivering modulated symbols, said method implementing: - an error correction encoding of said plurality of source words, implementing a single encoding module implementing an error correction code, or a number of encoding modules, each implementing a distinct error correction code, delivering a plurality of code words, said source words being encoded successively; - an interlacing of said code words, delivering an interlaced sequence; - a differential modulation of said interlaced sequence, delivering modulated symbols; each code word being decomposed into at least one group having a number of bits equal to the base two logarithm of a number of states of said differential modulation, said interlacing step distributing said groups in said interlaced sequence so that two adjacent groups in said interlaced sequence belong to distinct code words. - an error correction encoding of said plurality of source words, implementing a single encoding module implementing an error correction code, or a number of encoding modules, each implementing a distinct error correction code, delivering a plurality of code words, said source words being encoded successively; - an interlacing of said code words, delivering an interlaced sequence; - a differential modulation of said interlaced sequence, delivering modulated symbols;
A resource scheduling method, comprising: predicting, by an evolved Node B, eNB, a number of scheduled resources within a short time window according to a prediction method and a number of most-recently scheduled resources within the short time window; predicting, by the eNB, the number of scheduled resources within a long time window according to the predicted number of scheduled resources within the short time window; predicting, by the eNB, a maximum upper limit of resources which are able to be used in next scheduling according to the predicted number of scheduled resources within the short time window, the predicted number of scheduled resources within the long time window, a number of resources in a full bandwidth and a resource compensation, and performing, in the next scheduling, resource allocation according to a current traffic condition of the eNB and the maximum upper limit of the resources, wherein a length of the time window and the prediction method are input by a user and are acquired by the eNB. predicting, by an evolved Node B, eNB, a number of scheduled resources within a short time window according to a prediction method and a number of most-recently scheduled resources within the short time window; predicting, by the eNB, the number of scheduled resources within a long time window according to the predicted number of scheduled resources within the short time window; predicting, by the eNB, a maximum upper limit of resources which are able to be used in next scheduling according to the predicted number of scheduled resources within the short time window, the predicted number of scheduled resources within the long time window, a number of resources in a full bandwidth and a resource compensation, and performing, in the next scheduling, resource allocation according to a current traffic condition of the eNB and the maximum upper limit of the resources, wherein a length of the time window and the prediction method are input by a user and are acquired by the eNB.
A retainer comprising: a frame that includes a pair of opposing parts, one arranged apart from the other; a pair of first elastic parts projected from the one and the other of the pair of opposing parts of the frame, respectively, each first elastic part having a proximal end connected with the corresponding opposing part and a bent distal end; a single second elastic part that is supported between the bent distal ends of the paired first elastic parts to hold a substrate; and a pair of first holds and a pair of second holds arranged on the second elastic part so as to hold a rim of the substrate, wherein the paired first holds are arranged on the second elastic part apart from each other, and the paired second holds are arranged at the both ends of the second elastic part, respectively, characterized in that the second elastic part has both ends that are arranged closer to the nearest corresponding opposing part than the bent distal end of the paired first elastic part, respectively. a frame that includes a pair of opposing parts, one arranged apart from the other; a pair of first elastic parts projected from the one and the other of the pair of opposing parts of the frame, respectively, each first elastic part having a proximal end connected with the corresponding opposing part and a bent distal end; a single second elastic part that is supported between the bent distal ends of the paired first elastic parts to hold a substrate; and a pair of first holds and a pair of second holds arranged on the second elastic part so as to hold a rim of the substrate,
A method for controlling sending of a heartbeat signal at a push client, comprising: acquiring a target push delay corresponding to all target applications; sending the target push delay to a push server; receiving a first heartbeat signal control time sent by the push server and corresponding to the target push delay; and sending a heartbeat signal to the push server at an interval of the first heartbeat signal control time, wherein the acquiring a target push delay corresponding to all target applications, comprises: if a quantity of all the target applications is one, acquiring a push-acceptable signal delay of the target application, and using the push-acceptable signal delay of the target application as the target push delay; or if a quantity of all the target applications is at least two, acquiring push-acceptable signal delays of all the target applications, and using a shortest push-acceptable signal delay in all the push delays as the target push delay. acquiring a target push delay corresponding to all target applications; sending the target push delay to a push server; receiving a first heartbeat signal control time sent by the push server and corresponding to the target push delay; and sending a heartbeat signal to the push server at an interval of the first heartbeat signal control time, wherein the acquiring a target push delay corresponding to all target applications, comprises: if a quantity of all the target applications is one, acquiring a push-acceptable signal delay of the target application, and using the push-acceptable signal delay of the target application as the target push delay; or if a quantity of all the target applications is at least two, acquiring push-acceptable signal delays of all the target applications, and using a shortest push-acceptable signal delay in all the push delays as the target push delay. if a quantity of all the target applications is one, acquiring a push-acceptable signal delay of the target application, and using the push-acceptable signal delay of the target application as the target push delay; or if a quantity of all the target applications is at least two, acquiring push-acceptable signal delays of all the target applications, and using a shortest push-acceptable signal delay in all the push delays as the target push delay.
A porous polymer compound having a three-dimensional skeleton and pores and/or voids that are partitioned and formed by the three-dimensional skeleton, wherein the three-dimensional skeleton comprises multiple sugar derivatives represented by formula wherein A is a sugar residue having a carbon number of 5 to 30, and X is an oxygen atom or sulfur atom; Q is an organic group, having a carbon number of 2 to 40 and a valence of n, forming a bond with A via X; n is an integer of 2 to 4; and a plurality of As and a plurality of Xs may be identical or may be different; and multiple cations that interact with hydroxyl groups and/or ether bonds of the sugar derivatives, and the three-dimensional skeleton is formed by each of the cations interacting with two or more sugar derivatives. A is a sugar residue having a carbon number of 5 to 30, and X is an oxygen atom or sulfur atom; Q is an organic group, having a carbon number of 2 to 40 and a valence of n, forming a bond with A via X; n is an integer of 2 to 4; and
A liquid crystal display comprising: a first substrate; a thin film transistor disposed on the first substrate; a first electrode connected to the thin film transistor; and a first alignment layer disposed on the first electrode, wherein the first alignment layer comprises a polyimide and a crosslinker comprising an alkylene group -C n H 2n -, n is a natural number, and a plurality of crosslinking end groups, and the plurality of crosslinking end groups comprise at least two types of end groups or end group derivatives, each type having a different available functional group, characterized in that the different functional groups are disposed at lateral ends of the crosslinker such that the crosslinking end groups form an asymmetrical structure. a first substrate; a thin film transistor disposed on the first substrate; a first electrode connected to the thin film transistor; and a first alignment layer disposed on the first electrode, wherein the first alignment layer comprises a polyimide and a crosslinker comprising an alkylene group -C n H 2n -, n is a natural number, and a plurality of crosslinking end groups, and the plurality of crosslinking end groups comprise at least two types of end groups or end group derivatives, each type having a different available functional group, characterized in that the different functional groups are disposed at lateral ends of the crosslinker such that the crosslinking end groups form an asymmetrical structure.
A manhole covering system, comprising: a manhole cover as well as a magnetic cover for covering a side of the manhole cover facing away from a manhole, wherein the magnetic cover is designed in such a way that its size essentially corresponds to the size of the side of the manhole cover facing away from the manhole and wherein the magnetic cover and the manhole cover can be kept in a fixed position relative to each other by a magnetic force, wherein the magnetic cover is at least sectionally designed as a permanent magnet and/or electromagnet, and wherein the magnetic cover consists of at least one magnetic sheet and at least one protective film, wherein the magnetic sheet is arranged on the side of the magnetic cover facing the manhole cover and the protective film is arranged on the side of the magnetic cover facing away from the manhole cover, and wherein the protective film is a self-adhesive plastic film, wherein the protective film is connected with the magnetic sheet via an adhesive film formed by the plastic film. a manhole cover as well as a magnetic cover for covering a side of the manhole cover facing away from a manhole, wherein the magnetic cover is designed in such a way that its size essentially corresponds to the size of the side of the manhole cover facing away from the manhole and wherein the magnetic cover and the manhole cover can be kept in a fixed position relative to each other by a magnetic force, wherein the magnetic cover is at least sectionally designed as a permanent magnet and/or electromagnet, and wherein the magnetic cover consists of at least one magnetic sheet and at least one protective film, wherein the magnetic sheet is arranged on the side of the magnetic cover facing the manhole cover and the protective film is arranged on the side of the magnetic cover facing away from the manhole cover, and wherein the protective film is a self-adhesive plastic film, wherein the protective film is connected with the magnetic sheet via an adhesive film formed by the plastic film.
A solid oral dosage form comprising: tolterodine L-tartrate as the sole active ingredient; a pharmaceutically acceptable non-polymeric pH-modifying acid having a pKa of less than 5.0, said pharmaceutically acceptable pH-modifying acid being selected from the group consisting of an organic acid and a mineral acid; and optionally pharmaceutically acceptable excipients; wherein the acid is present in an amount effective for stabilizing tolterodine L-tartrate of from 0.1 wt.% to 10.0 wt.% of the dosage form. tolterodine L-tartrate as the sole active ingredient; a pharmaceutically acceptable non-polymeric pH-modifying acid having a pKa of less than 5.0, said pharmaceutically acceptable pH-modifying acid being selected from the group consisting of an organic acid and a mineral acid; and optionally pharmaceutically acceptable excipients; wherein the acid is present in an amount effective for stabilizing tolterodine L-tartrate of from 0.1 wt.% to 10.0 wt.% of the dosage form.
A non-transitory computer-readable medium storing program instructions that, when executed by a processor, causes the processor to identify events associated with a network environment, characterized by performing the steps of: obtaining at one or more first computing devices implemented as part of a first computing cloud (620,630) a first time series of data values from a first node in the network; obtaining, at the one or more first computing devices, a second time series of data values from a second node in the network; transmitting, via the one or more first computing devices, the first time series of data values and the second time series of data values to one or more second computing devices implemented as part of a second computing cloud (620,630), wherein the second computing cloud (620,630) is different than the first computing cloud (620,630); in response to receiving the first time series of data values and the second time series of data values;processing, by the one or more second computing devices, the first time series of data values and the second time series of data values to identify a first data trend; and based on the first data trend, identifying by the one or more second computing devices, a first network event associated with a first region of the network environment, wherein the first node and the second node reside within the first region. obtaining at one or more first computing devices implemented as part of a first computing cloud (620,630) a first time series of data values from a first node in the network; obtaining, at the one or more first computing devices, a second time series of data values from a second node in the network; transmitting, via the one or more first computing devices, the first time series of data values and the second time series of data values to one or more second computing devices implemented as part of a second computing cloud (620,630), wherein the second computing cloud (620,630) is different than the first computing cloud (620,630); in response to receiving the first time series of data values and the second time series of data values;processing, by the one or more second computing devices, the first time series of data values and the second time series of data values to identify a first data trend; and based on the first data trend, identifying by the one or more second computing devices, a first network event associated with a first region of the network environment, wherein the first node and the second node reside within the first region.
A tire tread comprising one or more grooves (19, 22, 24, 28), the tread having a radially outer surface and a non-skid tread depth as measured from the radially outer surface of the tread to the radially innermost surface of the one or more grooves (19, 22, 24, 28), the tread having a radially innermost layer comprising of a base tread compound, a radially outer tread cap layer and a middle tread layer located between the base layer and the outer tread cap layer, characterized in that the radially outer tread cap layer has a defined thickness and the radially middle tread layer comprises at least one notched area (75, 80) wherein the radially outer tread cap layer extends radially inward of the defined thickness.
A rotor for a vertical wind turbine, comprising at least one rotor blade which is substantially designed as a lift device, wherein the rotor blade has at least one flap on the inner side, wherein a fold-out mechanism, preferably in the form of magnets, in particular electromagnets and/or permanent magnets, is provided in the rotor blade and in the flap, causing the flap to open at low rotational speeds and causing the flap to close at increasing rotational speeds due to the centrifugal force acting on the flap, characterised in that a deflection chamber is provided in the rotor blade, which deflects the air masses flowing in from the back in the rotor blade and allows them to flow out through nozzles in the rear region of the rotor blade. wherein the rotor blade has at least one flap on the inner side, wherein a fold-out mechanism, preferably in the form of magnets, in particular electromagnets and/or permanent magnets, is provided in the rotor blade and in the flap, causing the flap to open at low rotational speeds and causing the flap to close at increasing rotational speeds due to the centrifugal force acting on the flap, characterised in that a deflection chamber is provided in the rotor blade, which deflects the air masses flowing in from the back in the rotor blade and allows them to flow out through nozzles in the rear region of the rotor blade.
A specimen collection tube assembly, comprising: i. a barrel defining a first chamber with a luer tip at one end and open at another end; and ii. an inner tube or plunger in a slidable sealing engagement within the barrel, characterized in that: - the inner tube defines a second chamber with a luer tip at one end and open at another end; wherein the open end of the inner tube is slidable within the first chamber such that the chambers (211, 221) allow fluid transfer between one another; - a seal encircles the open end of the inner tube for the slidable sealing engagement within the barrel; wherein a closed system is defined within the inner tube and the barrel when each luer tip (214, 224) is closed by a luer knob (230a, 230b); and wherein a volume of the closed system is variable by sliding the inner tube within the barrel. i. a barrel defining a first chamber with a luer tip at one end and open at another end; and ii. an inner tube or plunger in a slidable sealing engagement within the barrel, - the inner tube defines a second chamber with a luer tip at one end and open at another end; wherein the open end of the inner tube is slidable within the first chamber such that the chambers (211, 221) allow fluid transfer between one another; - a seal encircles the open end of the inner tube for the slidable sealing engagement within the barrel; wherein a closed system is defined within the inner tube and the barrel when each luer tip (214, 224) is closed by a luer knob (230a, 230b); and wherein a volume of the closed system is variable by sliding the inner tube within the barrel.
A security element with an optically variable structure having an embossed structure, wherein the embossed structure has a multiplicity of non-linear, raised or recessed embossed elements, wherein the optically variable structure has at least in a first partial area at least one first additional information item created by variation of the geometric shape of the non-linear embossed elements through shadow effects, characterized in that the at least one first additional information item is created by at least one partial section from the geometry of the respective non-linear embossed elements, such that the respective geometric shape of the non-linear embossed elements lacks this at least one partial section, wherein the partial section has the shape of a triangle, a rectangle or a polygon.