mhurhangee/ep-ind-claims huggingface dataset:
Shaft end piece for a coupling for connecting an encoder to an electrical machine, wherein the coupling comprises - an encoder shaft end piece which can be coupled to an encoder shaft and - a machine shaft end piece which can be coupled to a machine shaft, wherein at least one torque transmission element is mounted between the encoder shaft end piece and the machine shaft end piece, wherein the shaft end piece (3, 9) has at least one carrier, wherein the carrier (4, 8) and the shaft end piece (3, 9) are formed as an integral element, characterised in that the carrier (4, 8) has at least one fully enclosed cavity (12, 13) filled with granular material. - an encoder shaft end piece which can be coupled to an encoder shaft and - a machine shaft end piece which can be coupled to a machine shaft, wherein at least one torque transmission element is mounted between the encoder shaft end piece and the machine shaft end piece, wherein the shaft end piece (3, 9) has at least one carrier, wherein the carrier (4, 8) and the shaft end piece (3, 9) are formed as an integral element, characterised in that the carrier (4, 8) has at least one fully enclosed cavity (12, 13) filled with granular material. wherein at least one torque transmission element is mounted between the encoder shaft end piece and the machine shaft end piece, wherein the shaft end piece (3, 9) has at least one carrier, wherein the carrier (4, 8) and the shaft end piece (3, 9) are formed as an integral element, characterised in that the carrier (4, 8) has at least one fully enclosed cavity (12, 13) filled with granular material.
A method of transmitting data in a wireless broadcast system, the method comprising: mapping service data onto multiple physical layer pipes, PLPs, wherein each of the multiple PLPs includes arranged multiple data streams; generating at least one logical frame by mapping the multiple PLPs onto the at least one logical frame, wherein each of the at least one logical frame includes PLPs selected among the multiple PLPs and a first signaling field including information on the PLPs in the each of the at least one logical frame; generating a physical frame comprising at least a part of a logical channel defined as a sequence of the at least one logical frame and a second signaling field including information on PLPs in the physical frame; and transmitting the physical frame using the wireless broadcast system. mapping service data onto multiple physical layer pipes, PLPs, wherein each of the multiple PLPs includes arranged multiple data streams; generating at least one logical frame by mapping the multiple PLPs onto the at least one logical frame, wherein each of the at least one logical frame includes PLPs selected among the multiple PLPs and a first signaling field including information on the PLPs in the each of the at least one logical frame; generating a physical frame comprising at least a part of a logical channel defined as a sequence of the at least one logical frame and a second signaling field including information on PLPs in the physical frame; and transmitting the physical frame using the wireless broadcast system.
A method of recording computer communications between a first computing device and a second computing device comprising: directing a first IP packet directed from the second computing device to a recording network interface of a recording computer device having a packet storage, receiving the first IP packet at an address of the recording network interface, wherein the first IP packet includes a first UDP destination port number associated with a first session, allocating the first IP packet to a first recording stream of packets, and storing at least a portion of the first IP packet associated with the first recording stream of packets, characterized by: allocating the first IP packet to said first recording stream of packets based upon the first UDP destination port number specified at a first offset in the first IP packet without further processing the first IP packet at a transport layer or an application layer of the recording computer device, and storing said at least a portion of the first IP packet, wherein the first IP packet is associated with the first session in the packet storage. directing a first IP packet directed from the second computing device to a recording network interface of a recording computer device having a packet storage, receiving the first IP packet at an address of the recording network interface, wherein the first IP packet includes a first UDP destination port number associated with a first session, allocating the first IP packet to a first recording stream of packets, and storing at least a portion of the first IP packet associated with the first recording stream of packets, characterized by: allocating the first IP packet to said first recording stream of packets based upon the first UDP destination port number specified at a first offset in the first IP packet without further processing the first IP packet at a transport layer or an application layer of the recording computer device, and storing said at least a portion of the first IP packet, wherein the first IP packet is associated with the first session in the packet storage. allocating the first IP packet to said first recording stream of packets based upon the first UDP destination port number specified at a first offset in the first IP packet without further processing the first IP packet at a transport layer or an application layer of the recording computer device, and storing said at least a portion of the first IP packet, wherein the first IP packet is associated with the first session in the packet storage.
A method of manufacturing a plated steel sheet having excellent image clarity after coating, comprising: providing a cold rolled steel sheet by cold rolling; plating the cold rolled steel sheet to manufacture a plated steel sheet; and temper rolling the plated steel sheet by inserting the plated steel sheet into a temper rolling mill, wherein a long-wavelength waviness (Wsa1-5) of a final stand rolling roll is 0.4 μm or less (not including 0) during the cold rolling, wherein the plating of the cold rolled steel sheet is performed to allow a plating amount on a single surface to be 45 g/m 2 or greater, wherein, in the temper rolling the plated steel sheet, a roll having a long-wavelength waviness (Wsa1-5) of 0.4 μm or less (not including 0) is used, wherein the cold rolled steel sheet has a long-wavelength waviness (Wsa1-5) of 0.2 μm or less (not including 0). providing a cold rolled steel sheet by cold rolling; plating the cold rolled steel sheet to manufacture a plated steel sheet; and temper rolling the plated steel sheet by inserting the plated steel sheet into a temper rolling mill, wherein a long-wavelength waviness (Wsa1-5) of a final stand rolling roll is 0.4 μm or less (not including 0) during the cold rolling, wherein the plating of the cold rolled steel sheet is performed to allow a plating amount on a single surface to be 45 g/m 2 or greater, wherein, in the temper rolling the plated steel sheet, a roll having a long-wavelength waviness (Wsa1-5) of 0.4 μm or less (not including 0) is used, wherein the cold rolled steel sheet has a long-wavelength waviness (Wsa1-5) of 0.2 μm or less (not including 0).
A method performed in a thermal management device for proactive managing the temperature of a battery connected to an electronic device, the method comprising: - obtaining a measurement of the current temperature (T a) of the battery, - obtaining a value of a battery current of the battery, - determining a value of the resistance of the battery, - determining a predictive temperature increase (T dc) of the battery at least based on the obtained value of the battery current drawn from the battery and the determined value of the resistance, and - managing the temperature of the battery at least based on the current temperature (T a) of the battery and the predictive temperature increase (T dc) of the battery by using the predictive temperature increase (T dc) as a feedforward value when managing the temperature of the battery, wherein the step of managing the temperature of the battery comprise cooling the battery if the sum of the actual battery temperature (T a) and the predictive temperature increase (T dc) is higher than a first target temperature (T t1), wherein the step of managing the temperature of the battery comprise cooling the battery to a second target temperature (T t2) if the sum of the actual battery temperature (T a) and the predictive temperature increase (T dc) is higher than the first target temperature (T t1), and wherein the step of managing the temperature of the battery comprise heating the battery, if the sum of the actual battery temperature (T a) and the predictive temperature increase (T dc) is lower than a third target temperature (T t3). - obtaining a measurement of the current temperature (T a) of the battery, - obtaining a value of a battery current of the battery, - determining a value of the resistance of the battery, - determining a predictive temperature increase (T dc) of the battery at least based on the obtained value of the battery current drawn from the battery and the determined value of the resistance, and - managing the temperature of the battery at least based on the current temperature (T a) of the battery and the predictive temperature increase (T dc) of the battery by using the predictive temperature increase (T dc) as a feedforward value when managing the temperature of the battery,
Expression vector comprising: - a nucleic acid described in the sequence SEQ ID NO: 1, or a nucleic acid having a sequence identity of at least 85%, particularly 90%, in particular 95% with the sequence SEQ ID NO: 1, coding for subunit A of the acetoacetyl-CoA transferase of C. acetobulylicum and - a nucleic acid described in the sequence SEQ ID NO: 2 or a nucleic acid having a sequence identity of at least 85%, particularly 90%, in particular 95% with the sequence SEQ ID NO: 2, coding for subunit B of the acetoacetyl-CoA transferase of C. acetobutylicum, and - optionally a nucleic acid described in the sequence SEQ ID NO: 4 or a nucleic acid having a sequence identity of at least 85%, particularly 90%, in particular 95% with the sequence SEQ ID NO: 4, coding for the acetoacetate decarboxylase of C. acetobutylicum, and - a nucleic acid described in the sequence SEQ ID NO: 3 or a nucleic acid having a sequence identity of at least 85%, particularly 90%, in particular 95% with the sequence SEQ ID NO: 3, coding for the secondary alcohol dehydrogenase of C. beijerinckii, the expression of said nucleic acids being controlled by a single constitutive promoter located upstream of the abovementioned nucleic acids, said promoter being selected from the promoter described in the sequence SEQ ID NO: 5 (thl promoter) and the promoter described by the sequence SEQ ID NO: 6. - a nucleic acid described in the sequence SEQ ID NO: 1, or a nucleic acid having a sequence identity of at least 85%, particularly 90%, in particular 95% with the sequence SEQ ID NO: 1, coding for subunit A of the acetoacetyl-CoA transferase of C. acetobulylicum and - a nucleic acid described in the sequence SEQ ID NO: 2 or a nucleic acid having a sequence identity of at least 85%, particularly 90%, in particular 95% with the sequence SEQ ID NO: 2, coding for subunit B of the acetoacetyl-CoA transferase of C. acetobutylicum, and - optionally a nucleic acid described in the sequence SEQ ID NO: 4 or a nucleic acid having a sequence identity of at least 85%, particularly 90%, in particular 95% with the sequence SEQ ID NO: 4, coding for the acetoacetate decarboxylase of C. acetobutylicum, and - a nucleic acid described in the sequence SEQ ID NO: 3 or a nucleic acid having a sequence identity of at least 85%, particularly 90%, in particular 95% with the sequence SEQ ID NO: 3, coding for the secondary alcohol dehydrogenase of C. beijerinckii,
Temperature Management System (1;1';1") for a private household or public building, comprising a hot reservoir (8;8';8") preferably designed as a hot water container and provided with a heating coil (9;9';9"), and a cold reservoir (25;25';25") preferably designed as a cold water container and provided with a cooling coil (26;26'26"), which are or can be coupled via a supply line (10;10';10") and via a return line (11;11';11") with at least one solar collector or heat exchanger installed outdoors for the purpose of heating or cooling the respective reservoir (8,25) in order to form a circuit for a heat transfer medium, wherein valves (13,14;29,30;13',14';29',30';13",14";29",30") are arranged in said circuit, according to whose position the circuit of the at least one solar collector or heat exchanger for the heat transfer medium is closed in different ways, namely upon selecting a daytime operation, the circuit is closed from the at least one solar collector or heat exchanger via the supply line (10;10';10") and via the return line (11;11';11") to the heating coil (9;9';9") in the hot reservoir (8;8';8"), so that there is a transport of heat from the at least one solar collector (2;2';2") or heat exchanger to the hot reservoir (8;8';8"), and upon selecting a nighttime operation, the circuit is closed from the at least one solar collector or heat exchanger via the supply line (10;10';10") and via the return line (11;11';11") to the cooling coil (26;26';26") in the cold reservoir (25;25';25"), so that there is a transport of heat from the the cold reservoir (25;25';25") to the at least one solar collector (2;2';2") or heat exchanger, characterized in that a) the cooling coil (26;26';26") is installed in the upper area of the cold reservoir (25;25';25"), and in that b) a heat exchanger (32;32';32") is installed in the lower area of the cold reservoir (25;25';25"), wherein one or more radiators (24;24';24") are connected to the heat exchanger (32;32';32") in such a way that a heat transfer medium can flow between the radiators (24;24';24") and the heat exchanger (32;32';32") in the lower area of the cold reservoir (25;25';25"). a) the cooling coil (26;26';26") is installed in the upper area of the cold reservoir (25;25';25"), and in that b) a heat exchanger (32;32';32") is installed in the lower area of the cold reservoir (25;25';25"), wherein one or more radiators (24;24';24") are connected to the heat exchanger (32;32';32") in such a way that a heat transfer medium can flow between the radiators (24;24';24") and the heat exchanger (32;32';32") in the lower area of the cold reservoir (25;25';25").
A flame retardant for thermoplastic moulding compounds comprising between 30 and 70 percent by weight of amorphous porous glass particles made of borosilicate glass, said particles being manufactured from foam glass created in a high temperature extruder before being crushed and sifted, the mean particle size being between 1 and 100 μm, and comprising between 30 and 70 percent by weight melamine cyanurate, whereby the melamine cyanurate can also be used as equimolar amounts of melamine and cyanuric acid or isocyanuric acid respectively, the sum of the components amounting to 100 percent by weight.
A baseband processing unit, comprising: a backplane and at least two baseband processing boards, wherein each of the baseband processing boards comprises a baseband processing module, a power supply module and an optical module, and at least one of the baseband processing boards further comprises: a first direct path connected in parallel with the baseband processing module and a second direct path connected in parallel with the power supply module; in the case that failures occur on both the baseband processing module and the power supply module in a first baseband processing board comprising the first direct path and the second direct path, the first baseband processing board operates in a first operation mode, wherein the first operation mode comprises: obtaining baseband processing resources and power supply required for operation via the backplane, providing the obtained baseband processing resources to a corresponding radio remote unit via the first direct path and the optical module, and providing the obtained power supply to the optical module via the second direct path; and in the case that a failure occurs on the baseband processing module in the first baseband processing board, but no failure occurs on the power supply module in the first baseband processing board, the first baseband processing board operates in a second operation mode, wherein the second operation mode comprises: obtaining the baseband processing resources required for operation via the backplane, providing the obtained baseband processing resources to the corresponding radio remote unit via the first direct path and the optical module, and supplying the optical module with power by the power supply module of the baseband processing board.
An integrated circuit package, comprising: a first integrated circuit die comprising an image sensor integrated circuit; a second integrated circuit die comprising a digital signal processing integrated circuit, wherein the second integrated circuit die is bonded to the first integrated circuit die; a bond pad on the first integrated circuit die; and a via that extends through the first integrated circuit die and into the second integrated circuit die and that couples the bond pad on the first integrated circuit die to the second integrated circuit die, wherein the first integrated circuit die includes a shallow trench isolation structure, and wherein the via is formed through the shallow trench isolation structure. a first integrated circuit die comprising an image sensor integrated circuit; a second integrated circuit die comprising a digital signal processing integrated circuit, wherein the second integrated circuit die is bonded to the first integrated circuit die; a bond pad on the first integrated circuit die; and a via that extends through the first integrated circuit die and into the second integrated circuit die and that couples the bond pad on the first integrated circuit die to the second integrated circuit die, wherein the first integrated circuit die includes a shallow trench isolation structure, and wherein the via is formed through the shallow trench isolation structure.
A method for creating a picocell service alternate to a multiple access wireless network service, the method comprising: detecting a multiple access, MA, wireless telephone communications network; and generating a first picocell in response to detecting the MA wireless network; receiving control signals originating from a MA wireless network base station; identifying the MA wireless network in response to the base station control signals; and the method characterised by, wherein generating the first picocell includes generating first picocell control signals equivalent to the base station control signals such that a mobile station in the first picocell responds to the first picocell control signals instead of the base station control signals wherein the first picocell control signals being equivalent to the base station control signals comprises using one or more of a common frequency band, signal modulation or medium access control format. detecting a multiple access, MA, wireless telephone communications network; and generating a first picocell in response to detecting the MA wireless network; receiving control signals originating from a MA wireless network base station; identifying the MA wireless network in response to the base station control signals; and the method characterised by, wherein generating the first picocell includes generating first picocell control signals equivalent to the base station control signals such that a mobile station in the first picocell responds to the first picocell control signals instead of the base station control signals wherein the first picocell control signals being equivalent to the base station control signals comprises using one or more of a common frequency band, signal modulation or medium access control format.
A method for producing a rigid foam, which comprises reacting at least one polyisocyanate with a mixture comprising at least one polyepoxide, water, and at least one other hydrogen-acidic compound, the reaction taking place in the presence of a metal-free Lewis base having at least one nitrogen atom, the catalyst being selected from the group consisting of 1,8-diazabicyclo[5.4.0]undec-7-ene, N-methyl-N'-(dimethylaminomethyl)-piperazine, pentamethyldiethylenetriamine, methylimidazole, and mixtures and derivatives thereof.
A ring-opening polymer of cyclopentene, wherein a cis ratio of cyclopentene-derived structural units is 30% or more, the weight average molecular weight (Mw) is 100,000 to 1,000,000, and an oxysilyl group is included at an end of the polymer chain.
A solar cell precursor at least comprising as precursor parts: i) a wafer with at least one hole with a Si surface; ii) an electro-conductive paste at least comprising as paste constituents: a) metallic particles; b) an inorganic reaction system; c) an organic vehicle; and d) an additive; comprised by the hole, wherein the inorganic reaction system has a glass transition temperature above 550 °C. i) a wafer with at least one hole with a Si surface; ii) an electro-conductive paste at least comprising as paste constituents: a) metallic particles; b) an inorganic reaction system; c) an organic vehicle; and d) an additive; comprised by the hole, a) metallic particles; b) an inorganic reaction system; c) an organic vehicle; and d) an additive;