mhurhangee/ep-ind-claims huggingface dataset:
Method of implementing Wind Energy Converting Systems (WECS), comprising the steps of: a) prearranging a wind rotor comprising blades, an anti-icing system, means (50, 51) for adjusting the anti-icing system; b) installing the prearranged wind rotor; c) carrying out at least one operation test of the wind rotor, in substantially critical icing conditions for the location where the WECS is to be installed; d) detecting parameters right on the blade surface useful for determining the presence of ice on the blades, such as temperature and humidity being present on the blade surface, through suitable sensors; e) adjusting the anti-icing system through its adjustment means, if ice is detected; f) repeating the previous steps a)-e) until parameters are detected which indicate that no ice is present on the surfaces of the blade installed on the test site. a) prearranging a wind rotor comprising blades, an anti-icing system, means (50, 51) for adjusting the anti-icing system; b) installing the prearranged wind rotor; c) carrying out at least one operation test of the wind rotor, in substantially critical icing conditions for the location where the WECS is to be installed; d) detecting parameters right on the blade surface useful for determining the presence of ice on the blades, such as temperature and humidity being present on the blade surface, through suitable sensors; e) adjusting the anti-icing system through its adjustment means, if ice is detected; f) repeating the previous steps a)-e) until parameters are detected which indicate that no ice is present on the surfaces of the blade installed on the test site.
A method for synchronising execution of a plurality of threads on a multi-threaded processor, each thread being provided with a number of synchronisation points, the method being performed by the multi-threaded processor and comprising the steps of: pausing execution of a thread when it reaches a synchronisation point, the thread being paused in a wait for synchronisation start state, waiting for all other threads with which it is intended to be synchronised to reach a corresponding synchronisation point, and subsequently resuming execution, and further including the step of pausing execution (28, 30, 32, 34) of a thread at a branch target following a branch which branches over a section of code which includes the synchronisation point, the thread being paused in a wait for synchronisation end state, until at least one of the other threads reaches the branch target. pausing execution of a thread when it reaches a synchronisation point, the thread being paused in a wait for synchronisation start state, waiting for all other threads with which it is intended to be synchronised to reach a corresponding synchronisation point, and subsequently resuming execution, and further including the step of pausing execution (28, 30, 32, 34) of a thread at a branch target following a branch which branches over a section of code which includes the synchronisation point, the thread being paused in a wait for synchronisation end state, until at least one of the other threads reaches the branch target.
Proximity detector (10, 20, 30, 40, 50) for a device (Eq, Eq2) for an automotive vehicle, comprising: - a capacitive detection antenna that generates a detection signal when a user is present in the proximity of said device (Eq, Eq2), the detection antenna being overmoulded in a surface element (sElt) of said device, said surface element having a plurality of sides, the detection antenna extending at least over a portion of one side of the surface element (sElt), or over a portion of two consecutive sides of the surface element (sElt); - a printed circuit board that processes the detection signal for controlling an action on said device (Eq, Eq2); - a conductive rod (3, 13) for electrically connecting the detection antenna to the printed circuit board, - said rod being an extension of the detection antenna so as to form a one-piece assembly with the latter. - a capacitive detection antenna that generates a detection signal when a user is present in the proximity of said device (Eq, Eq2), the detection antenna being overmoulded in a surface element (sElt) of said device, said surface element having a plurality of sides, the detection antenna extending at least over a portion of one side of the surface element (sElt), or over a portion of two consecutive sides of the surface element (sElt); - a printed circuit board that processes the detection signal for controlling an action on said device (Eq, Eq2); - a conductive rod (3, 13) for electrically connecting the detection antenna to the printed circuit board, - said rod being an extension of the detection antenna so as to form a one-piece assembly with the latter.
A developing device to be moved along an attaching path to be attached to and detached from a main body of an image forming apparatus in the direction of the attaching path, the developing device including: a memory unit to provide information about the developing device to the main body, and a contact portion to be connected to the main body for connecting the memory unit to the main body, wherein the contact portion is moveable relative to the developing device between: a disconnected orientation when detached where the contact portion is inclined with respect to direction of the attaching path, and a connected orientation when attached where the contact portion is in parallel with the direction of the attaching path. a memory unit to provide information about the developing device to the main body, and a contact portion to be connected to the main body for connecting the memory unit to the main body, wherein the contact portion is moveable relative to the developing device between: a disconnected orientation when detached where the contact portion is inclined with respect to direction of the attaching path, and a connected orientation when attached where the contact portion is in parallel with the direction of the attaching path. a disconnected orientation when detached where the contact portion is inclined with respect to direction of the attaching path, and a connected orientation when attached where the contact portion is in parallel with the direction of the attaching path.
A precursor for a device for filtering, comprising: at least two layers of filter element, each layer of filter element comprising a plurality of three-dimensional geometric cages joined in fixed relationship to each other, wherein each layer further comprises a peripheral member that encompasses the layer; and a plurality of spacer members that span the peripheral members of a pair of adjacent layers, holding the layers in fixed spaced-apart relationship. at least two layers of filter element, each layer of filter element comprising a plurality of three-dimensional geometric cages joined in fixed relationship to each other, wherein each layer further comprises a peripheral member that encompasses the layer; and a plurality of spacer members that span the peripheral members of a pair of adjacent layers, holding the layers in fixed spaced-apart relationship.
A method to manage power in a system comprising a processor comprising a cache, the method comprising: monitoring transactions over an interconnect coupling a chipset device and a peripheral device in the system, the transactions being transmitted between the peripheral device and the chipset device according to a flow control protocol that allows the chipset device to keep track of the transactions; causing a processor in the system to transition from a first power state, in which snooping of bus-master instituted memory traffic is disabled, to a second power state, in which such snooping is enabled, if a number of consumed credits for a plurality of coherent transactions pending in a buffer of the chip set device exceeds a first threshold; and de-asserting an indicator within a message packet, thus allowing the processor to transition into the first power state from the second power state in response to a request from the processor to transition into the first power state if a number of consumed credits for a plurality of incoherent transactions pending in the buffer of the chipset device exceeds a second threshold, wherein the number of consumed credits for the plurality of coherent transactions pending in the buffer reflects the portion of buffer taken up by the plurality of coherent transactions and the number of consumed credits for the plurality of incoherent transactions pending in the buffer reflects the portion of buffer taken up by the plurality of incoherent transactions. monitoring transactions over an interconnect coupling a chipset device and a peripheral device in the system, the transactions being transmitted between the peripheral device and the chipset device according to a flow control protocol that allows the chipset device to keep track of the transactions; causing a processor in the system to transition from a first power state, in which snooping of bus-master instituted memory traffic is disabled, to a second power state, in which such snooping is enabled, if a number of consumed credits for a plurality of coherent transactions pending in a buffer of the chip set device exceeds a first threshold; and de-asserting an indicator within a message packet, thus allowing the processor to transition into the first power state from the second power state in response to a request from the processor to transition into the first power state if a number of consumed credits for a plurality of incoherent transactions pending in the buffer of the chipset device exceeds a second threshold, wherein the number of consumed credits for the plurality of coherent transactions pending in the buffer reflects the portion of buffer taken up by the plurality of coherent transactions and the number of consumed credits for the plurality of incoherent transactions pending in the buffer reflects the portion of buffer taken up by the plurality of incoherent transactions.
A vehicular lamp fitting comprising: a film light source (22, 22A, 22B) that includes a transparent film having flexibility, and a plurality of semiconductor light-emitting elements which are fixed in a state of being two-dimensionally disposed on at least a front surface of the transparent film; and a reflection surface that is disposed in a state of facing a rear surface of the transparent film of the film light source (22, 22A, 22B), and that reflects light which is emitted from a part or all of the plurality of semiconductor light-emitting elements and transmitted through the transparent film; a light distribution control lens that controls light which is emitted from a part or all of the plurality of semiconductor light-emitting elements and transmitted through the transparent film, wherein the light distribution control lens is disposed between the film light source (22, 22A, 22B) and the reflection surface, wherein the reflection surface reflects the light controlled by the light distribution control lens, characterized in that the vehicular lamp fitting comprises a plurality of the film light sources (22A, 22B), wherein the plurality of film light sources (22A, 22B) are disposed in a state of being overlapped in a longitudinal direction of the vehicle within a same range (L1, L2) in a front view. a film light source (22, 22A, 22B) that includes a transparent film having flexibility, and a plurality of semiconductor light-emitting elements which are fixed in a state of being two-dimensionally disposed on at least a front surface of the transparent film; and a reflection surface that is disposed in a state of facing a rear surface of the transparent film of the film light source (22, 22A, 22B), and that reflects light which is emitted from a part or all of the plurality of semiconductor light-emitting elements and transmitted through the transparent film; a light distribution control lens that controls light which is emitted from a part or all of the plurality of semiconductor light-emitting elements and transmitted through the transparent film, wherein the light distribution control lens is disposed between the film light source (22, 22A, 22B) and the reflection surface, wherein the reflection surface reflects the light controlled by the light distribution control lens, characterized in that the vehicular lamp fitting comprises a plurality of the film light sources (22A, 22B), wherein the plurality of film light sources (22A, 22B) are disposed in a state of being overlapped in a longitudinal direction of the vehicle within a same range (L1, L2) in a front view.
A secure element comprising a communication interface and first and second virtual profiles (PR1, PR2), said secure element being configured to get electric power from a host machine connected through said communication interface, characterized in that each of said virtual profiles (PR1, PR2) is an emulated secure element, in that each of said virtual profiles (PR1, PR2) is associated with a subscription, in that said secure element comprises an execution component configured to run simultaneously said first and second virtual profiles (PR1, PR2) and in that said secure element comprises a communication component configured to receive an incoming data through the communication interface, said incoming data comprising a first command intended to be executed by the first virtual profile, a second command intended to be executed by the second virtual profile and a specific incoming information, to demultiplex said first and second commands (C1, C2), to send said first command to the first virtual profile and the second command to the second virtual profile based on said specific incoming information, to get a first response message generated by the first virtual profile by executing the first command and a second response message generated by the second virtual profile by executing the second command, to generate an outgoing data by multiplexing said first and second response messages (R1, R2) and to send the outgoing data through the communication interface.
A communication apparatus operating as a base station (AP-1), comprising: a communication section that transmits and receives a wireless signal; and a control section that controls a channel used by a subordinate wireless terminal (STA-1), wherein the control section designates a first transmission scheme to a first wireless terminal (STA-1) that uses a channel including a specific primary channel, and designates a second transmission scheme different from the first transmission scheme to a second wireless terminal (STA-1) that uses solely a non-primary channel, the second transmission scheme having a lower data rate and higher transmission power than a data rate and transmission power of the first transmission scheme. a communication section that transmits and receives a wireless signal; and a control section that controls a channel used by a subordinate wireless terminal (STA-1), wherein the control section designates a first transmission scheme to a first wireless terminal (STA-1) that uses a channel including a specific primary channel, and designates a second transmission scheme different from the first transmission scheme to a second wireless terminal (STA-1) that uses solely a non-primary channel, the second transmission scheme having a lower data rate and higher transmission power than a data rate and transmission power of the first transmission scheme.
A light irradiator comprising: a light source including a plurality of light-emitting elements; a heat-dissipating member thermally connected to the light source; a drive including a drive circuit for the light source; a housing accommodating the light source, the heat-dissipating member, and the drive, the housing having a plurality of vents and a light-emission opening to allow light from the light source to pass, the housing being rectangular and having a first surface having a first side with a first dimension and a second side with a second dimension greater than the first dimension, a second surface having the second side and a third side with a third dimension greater than the second dimension, and a third surface having the first side and the third side, the light-emission opening being in the first surface, the plurality of vents including a first vent and a second vent in the second surface, the first vent being nearer the light-emission opening than the second vent, the second vent being located opposite to the light-emission opening, the light source being adjacent to the light-emission opening, the heat-dissipating member facing the first vent, the drive being between the first vent and the second vent; an axial fan at the second vent, the axial fan being configured to blow air from inside the housing to outside, the axial fan having a fan size greater than the first dimension and less than the second dimension; and a plate at the second vent, the plate facing the axial fan with a spacing less than or equal to the first dimension between the plate and the axial fan. a light source including a plurality of light-emitting elements; a heat-dissipating member thermally connected to the light source; a drive including a drive circuit for the light source; a housing accommodating the light source, the heat-dissipating member, and the drive, the housing having a plurality of vents and a light-emission opening to allow light from the light source to pass, the housing being rectangular and having a first surface having a first side with a first dimension and a second side with a second dimension greater than the first dimension, a second surface having the second side and a third side with a third dimension greater than the second dimension, and a third surface having the first side and the third side, the light-emission opening being in the first surface, the plurality of vents including a first vent and a second vent in the second surface, the first vent being nearer the light-emission opening than the second vent, the second vent being located opposite to the light-emission opening, the light source being adjacent to the light-emission opening, the heat-dissipating member facing the first vent, the drive being between the first vent and the second vent; an axial fan at the second vent, the axial fan being configured to blow air from inside the housing to outside, the axial fan having a fan size greater than the first dimension and less than the second dimension; and a plate at the second vent, the plate facing the axial fan with a spacing less than or equal to the first dimension between the plate and the axial fan.
A leveling foot for supporting two or more photovoltaic modules, the leveling foot comprising: a coupling portion dimensioned to engage with a first photovoltaic module on a first side and with a second photovoltaic module on a second side opposite the first side; a base portion; and a vertical height adjustment mechanism comprising a rotatable stud connecting the coupling portion to the base portion, wherein, in use, rotation of the rotatable stud varies a distance between the coupling portion and the base portion and wherein the rotatable stud is arranged such that it is accessible from above and can be rotated after the coupling portion is engaged with the first and second photovoltaic modules; characterized in that the coupling portion further comprises: a center portion; a tongue portion extending from one side of the center portion and configured to be slidably inserted into a groove of the first photovoltaic module; and a key portion extending from an opposite side of the center portion and configured to rotatably lock into a groove of the second photovoltaic module. a coupling portion dimensioned to engage with a first photovoltaic module on a first side and with a second photovoltaic module on a second side opposite the first side; a base portion; and a vertical height adjustment mechanism comprising a rotatable stud connecting the coupling portion to the base portion, wherein, in use, rotation of the rotatable stud varies a distance between the coupling portion and the base portion and wherein the rotatable stud is arranged such that it is accessible from above and can be rotated after the coupling portion is engaged with the first and second photovoltaic modules; characterized in that the coupling portion further comprises: a center portion; a tongue portion extending from one side of the center portion and configured to be slidably inserted into a groove of the first photovoltaic module; and a key portion extending from an opposite side of the center portion and configured to rotatably lock into a groove of the second photovoltaic module.
An in vitro method of producing pluripotent stem cells, wherein said method comprises introducing a temperature-sensitive Sendai virus vector that comprises in one vector the KLF gene, OCT gene, and SOX gene in this order, and a Sendai virus vector that comprises the KLF gene but not the OCT gene and the SOX gene, and culturing in the range of 36.5 to 37.5°C, wherein the temperature-sensitive Sendai virus vector comprising in one vector the KLF gene, OCT gene, and SOX gene in this order is an F gene-deleted Sendai virus vector that comprises G69E, T116A, and A183S mutations in the M protein, A262T, G264R, and K461G mutations in the HN protein, D433A, R434A, K437A, and L511F mutations in the P protein, and N1197S and K1795E mutations in the L protein, and wherein the Sendai virus vector that comprises the KLF gene but not the OCT gene and the SOX gene is an F gene-deleted Sendai virus vector that comprises G69E, T116A, and A183S mutations in the M protein, A262T, G264R, and K461G mutations in the HN protein, L511F mutation in the P protein, and N1197S and K1795E mutations in the L protein. introducing a temperature-sensitive Sendai virus vector that comprises in one vector the KLF gene, OCT gene, and SOX gene in this order, and a Sendai virus vector that comprises the KLF gene but not the OCT gene and the SOX gene, and culturing in the range of 36.5 to 37.5°C, wherein the temperature-sensitive Sendai virus vector comprising in one vector the KLF gene, OCT gene, and SOX gene in this order is an F gene-deleted Sendai virus vector that comprises G69E, T116A, and A183S mutations in the M protein, A262T, G264R, and K461G mutations in the HN protein, D433A, R434A, K437A, and L511F mutations in the P protein, and N1197S and K1795E mutations in the L protein, and wherein the Sendai virus vector that comprises the KLF gene but not the OCT gene and the SOX gene is an F gene-deleted Sendai virus vector that comprises G69E, T116A, and A183S mutations in the M protein, A262T, G264R, and K461G mutations in the HN protein, L511F mutation in the P protein, and N1197S and K1795E mutations in the L protein.
An iron based powder consists of particles of reduced copper oxide diffusion bonded to the surface of an atomized iron powder wherein the content of copper is 1-5%, preferably 1.5-4% and most preferably 1.5-3.5% by weight of the iron based powder characterized in that the maximum particle size of the iron-based powder is 250 μm, at least 75% is below 150 μm and at most 30% is below 45 μm measured according to IS04497 1983, the apparent density is at least 2.70 g/cm 3 measured according to ISO 3923:2008, and the oxygen content is at most 0.16% by weight, and the content of other inevitable impurities is at most 1% by weight, and the iron-based powder having a SSF- factor of at most 2.0, preferably at most 1.7 wherein the SSF-factor is defined as the quotation between the Cu content in weight% in the fraction of the iron based powder which passes a 45 μm sieve and the Cu content in in weight% in the fraction of the iron based powder which do not passes a 45 μm sieve.