mhurhangee/ep-ind-claims huggingface dataset:
A process for purifying a phenolic mixture, which process comprises - as a first step, providing a phenolic feed containing phenol, water and at least one further organic or acidic component, and - as a second step, separating the phenolic feed by distillation into a base fraction, an intermediate fraction and a first overhead stream, - conducting the first overhead stream through at least one condenser to an condensate drum 10 in which at least one first condensate and at least one first uncondensed fraction are formed, - recycling at least a portion of the first condensate to the distillation; - conducting the first uncondensed fraction to a second condenser wherein a second condensed fraction and a second uncondensed fraction are formed; - removing at least a portion of the second uncondensed fraction; - recycling at least a portion of the second condensed fraction to the condensate drum 10, - removing at least a portion of said first and/or second condensed fraction. - as a first step, providing a phenolic feed containing phenol, water and at least one further organic or acidic component, and - as a second step, separating the phenolic feed by distillation into a base fraction, an intermediate fraction and a first overhead stream, - conducting the first overhead stream through at least one condenser to an condensate drum 10 in which at least one first condensate and at least one first uncondensed fraction are formed, - recycling at least a portion of the first condensate to the distillation; - conducting the first uncondensed fraction to a second condenser wherein a second condensed fraction and a second uncondensed fraction are formed; - removing at least a portion of the second uncondensed fraction; - recycling at least a portion of the second condensed fraction to the condensate drum 10, - removing at least a portion of said first and/or second condensed fraction.
A high efficiency thermal printing system, comprising: a donor ribbon having donor material; a receiver medium; a test pattern to be printed on the receiver medium using the donor ribbon; a print head located in a thermal printer, wherein the print head is adapted to print the test pattern on the receiver medium by heating the donor ribbon to cause the donor material to transfer from the donor ribbon onto the receiver medium, thereby depleting donor material on the donor ribbon; a sensor adapted to measure a depletion amount of the donor material on the donor ribbon after printing the test pattern; and a processor adapted to calibrate the thermal printing system by adjusting a lookup table in response to the measured depletion amount of donor material. a donor ribbon having donor material; a receiver medium; a test pattern to be printed on the receiver medium using the donor ribbon; a print head located in a thermal printer, wherein the print head is adapted to print the test pattern on the receiver medium by heating the donor ribbon to cause the donor material to transfer from the donor ribbon onto the receiver medium, thereby depleting donor material on the donor ribbon; a sensor adapted to measure a depletion amount of the donor material on the donor ribbon after printing the test pattern; and a processor adapted to calibrate the thermal printing system by adjusting a lookup table in response to the measured depletion amount of donor material.
A tool (90; 100; 110; 120) for the incremental forming of a sheet of material, the tool comprising: a forming tip (94; 104; 114; 124, 126, 128), said forming tip having a diameter; a shank (92; 102; 112; 136) to which said forming tip is attached, said shank having a diameter, said diameter of said forming tip being greater than said diameter of said shank, wherein said forming tip (94; 104; 114) is donut-shaped, characterized in that said forming tip (94; 104; 114) includes a recessed area (96; 106; 116). a forming tip (94; 104; 114; 124, 126, 128), said forming tip having a diameter; a shank (92; 102; 112; 136) to which said forming tip is attached, said shank having a diameter, said diameter of said forming tip being greater than said diameter of said shank, wherein said forming tip (94; 104; 114) is donut-shaped, characterized in that said forming tip (94; 104; 114) includes a recessed area (96; 106; 116).
An apparatus for controlling a flow of a fluid between a wellbore tubular and a formation, comprising - a body having at least two flow paths configured to convey the fluid, the at least two flow paths being hydraulically isolated from one another in the body; and - an occlusion member fixed to the body and configured to occlude at least one of the at least two flow paths, characterized in that at least one of the at least two flow paths includes a plurality of chambers, each of the chambers being in fluid communication with one another. - a body having at least two flow paths configured to convey the fluid, the at least two flow paths being hydraulically isolated from one another in the body; and - an occlusion member fixed to the body and configured to occlude at least one of the at least two flow paths,
Arrangement for detecting air constituents, in particular for detecting air constituents in buildings and vehicles, in which arrangement a plurality of active layers, which are sensitive to gas, and also a heater which are connected to an evaluation unit are arranged on a substrate, wherein the heater is simultaneously a temperature sensor and the resistor (Rh) of the heater and the active resistors (Rs) of the active layers are connected to a total of four electrical connections (A1 to A4) via electrodes such that the heater, at two connections (A3, A4), and two further connections (A1, A2) are connected to connecting points of the active layers, wherein - the evaluation unit contains an evaluation resistor (Ra) and a changeover switch, - the heater comprises two resistor elements (Rh1, Rh2), wherein the connecting point of the resistor elements (Rh1, Rh2) is connected to the active layers, - one resistor element has a lower resistance value than the second resistor element, - the arrangement contains three active layers which are connectable to the evaluation unit by means of two electrical connections (A1, A2), wherein - three active resistors (Rs) are connected in delta, wherein two node points is connected to electrical connections (A1, A2) and the third node point is connected to the connecting point of the resistor elements (Rh1, Rh2). - the evaluation unit contains an evaluation resistor (Ra) and a changeover switch, - the heater comprises two resistor elements (Rh1, Rh2), wherein the connecting point of the resistor elements (Rh1, Rh2) is connected to the active layers, - one resistor element has a lower resistance value than the second resistor element, - the arrangement contains three active layers which are connectable to the evaluation unit by means of two electrical connections (A1, A2), wherein - three active resistors (Rs) are connected in delta, wherein two node points is connected to electrical connections (A1, A2) and the third node point is connected to the connecting point of the resistor elements (Rh1, Rh2).
A method of registering for a service a device (6, 5) residing in a small cell provided by a small cell base station, the small cell base station being associated with a cloud-based server, the server including a docker container for controlling the service in that small cell, the docker container having a docker port, and the method including the steps of: the device (6, 5) sending a request to register including a small cell identifier, Cell Id, of the small cell, the server receiving the request and determining the docker port identifier that corresponds to the small cell identifier indicated in the request, and the device (6,5) being informed of the docker port identifier of the docker associated with that small cell. the device (6, 5) sending a request to register including a small cell identifier, Cell Id, of the small cell, the server receiving the request and determining the docker port identifier that corresponds to the small cell identifier indicated in the request, and the device (6,5) being informed of the docker port identifier of the docker associated with that small cell.
A method for enabling communication between a transmitting node (104, 106, 108) implementing a G.hnem standard and a receiving node (104, 106, 108) implementing a G3 standard, the method being characterized by comprising: generating, at the transmitting node (104, 106, 108), a frame (300; 400) including: a preamble (330; 430) generated based on a first protocol type, a first header (320; 420) generated based on the first protocol type, a second header generated based on a second protocol type, and a payload (310; 410) generated based on the second protocol type; and transmitting the frame (300; 400) to the receiving node (104, 106, 108), wherein the first protocol type is according to standard G.hnem and the second protocol type is according to standard G3, wherein the first header (320; 420) includes at least a first Frame Control Header generated according to the first protocol type, wherein the first Frame Control Header includes first frame configuration information indicative of a first modulation and coding scheme of the first protocol type, and wherein the second header includes at least a second Frame Control Header generated according to the second protocol type, wherein the second Frame Control Header includes second frame configuration information indicative of a second modulation and coding scheme of the second protocol type, wherein the second Frame Control Header is truncated to remove redundant information common between the first Frame Control Header and the second Frame Control Header. generating, at the transmitting node (104, 106, 108), a frame (300; 400) including: a preamble (330; 430) generated based on a first protocol type, a first header (320; 420) generated based on the first protocol type, a second header generated based on a second protocol type, and a payload (310; 410) generated based on the second protocol type; and a preamble (330; 430) generated based on a first protocol type, a first header (320; 420) generated based on the first protocol type, a second header generated based on a second protocol type, and a payload (310; 410) generated based on the second protocol type; and transmitting the frame (300; 400) to the receiving node (104, 106, 108), wherein the first protocol type is according to standard G.hnem and the second protocol type is according to standard G3, wherein the first header (320; 420) includes at least a first Frame Control Header generated according to the first protocol type, wherein the first Frame Control Header includes first frame configuration information indicative of a first modulation and coding scheme of the first protocol type, and wherein the second header includes at least a second Frame Control Header generated according to the second protocol type, wherein the second Frame Control Header includes second frame configuration information indicative of a second modulation and coding scheme of the second protocol type, wherein the second Frame Control Header is truncated to remove redundant information common between the first Frame Control Header and the second Frame Control Header.
A method for pairing dynamic secrets in a secured wireless network, the method comprising: generating a random secret for an authenticated user, wherein the secret is unique to the user; associating the secret with an access profile belonging to the user, wherein the secret governs user access and actions within the network as indicated by the access profile, and wherein the user is allowed to access data and perform actions within the secured wireless network based on a security clearance level of the user; associating the secret with a wireless interface device belonging to the user associated with the access profile, wherein the wireless interface device is configured to access the secured wireless network using the secret, and wherein use of the secret to access the secured wireless network is restricted to the associated wireless interface device belonging to the user as identified by the access profile; receiving an authentication request from the wireless interface device, the authentication request identifying the user and including a security key derived from the secret; verifying that the security key is valid by comparing the received security key to a security key in a secret database; and granting the wireless interface device access to the secured wireless network following a determination that the security key is valid and has not expired. generating a random secret for an authenticated user, wherein the secret is unique to the user; associating the secret with an access profile belonging to the user, wherein the secret governs user access and actions within the network as indicated by the access profile, and wherein the user is allowed to access data and perform actions within the secured wireless network based on a security clearance level of the user; associating the secret with a wireless interface device belonging to the user associated with the access profile, wherein the wireless interface device is configured to access the secured wireless network using the secret, and wherein use of the secret to access the secured wireless network is restricted to the associated wireless interface device belonging to the user as identified by the access profile; receiving an authentication request from the wireless interface device, the authentication request identifying the user and including a security key derived from the secret; verifying that the security key is valid by comparing the received security key to a security key in a secret database; and granting the wireless interface device access to the secured wireless network following a determination that the security key is valid and has not expired.
A transmitter that performs wireless communication with a receiver that has a function of suppressing an interference signal included in a received signal to acquire a desired signal by receiving the interference signal in advance for a predetermined period, the transmitter comprising: an interference detection unit operable to detect an arriving interference signal; and a transmission unit operable to transmit the packet to the receiver; characterized by a concurrent transmission judgment unit operable to judge whether it is possible to transmit the packet concurrently with the interference signal to the receiver, and a transmission timing control unit operable to cause the transmission unit to transmit the packet after elapse of the predetermined period since the interference detection unit has detected the interference signal, while the interference signal detected by the interference detection unit is still arriving, when the concurrent transmission judgment unit judges that concurrent transmission is possible. an interference detection unit operable to detect an arriving interference signal; and a transmission unit operable to transmit the packet to the receiver; characterized by a concurrent transmission judgment unit operable to judge whether it is possible to transmit the packet concurrently with the interference signal to the receiver, and a transmission timing control unit operable to cause the transmission unit to transmit the packet after elapse of the predetermined period since the interference detection unit has detected the interference signal, while the interference signal detected by the interference detection unit is still arriving, when the concurrent transmission judgment unit judges that concurrent transmission is possible.
A system comprising; a generator configured to generate alternating current, AC, voltage; a power converter configured to convert the AC voltage into regulated direct current, DC, voltage; and a voltage regulator configured to function as a generator control unit for the generator, the voltage regulator comprising: an AC voltage regulator configured to regulate the AC voltage based on an AC output of the generator; a DC voltage regulator configured to regulate the DC voltage based on a DC output of the power converter; and a regulator selector configured to select the DC voltage regulator during regular operation in which the DC voltage is provided to a load, and to select the AC voltage regulator when at least one of a current from the power converter and a voltage of the power converter indicate at least one of a no-load condition, a light-load condition, and a transient. a generator configured to generate alternating current, AC, voltage; a power converter configured to convert the AC voltage into regulated direct current, DC, voltage; and a voltage regulator configured to function as a generator control unit for the generator, the voltage regulator comprising: an AC voltage regulator configured to regulate the AC voltage based on an AC output of the generator; a DC voltage regulator configured to regulate the DC voltage based on a DC output of the power converter; and a regulator selector configured to select the DC voltage regulator during regular operation in which the DC voltage is provided to a load, and to select the AC voltage regulator when at least one of a current from the power converter and a voltage of the power converter indicate at least one of a no-load condition, a light-load condition, and a transient. an AC voltage regulator configured to regulate the AC voltage based on an AC output of the generator; a DC voltage regulator configured to regulate the DC voltage based on a DC output of the power converter; and a regulator selector configured to select the DC voltage regulator during regular operation in which the DC voltage is provided to a load, and to select the AC voltage regulator when at least one of a current from the power converter and a voltage of the power converter indicate at least one of a no-load condition, a light-load condition, and a transient.
A spiker roller having: (i) a roller assembly having a plurality of roller components each having a peripheral wall and a plurality of apertures in the peripheral wall and an end wall which has a centrally located hub or boss surrounding an opening, wherein said hub or boss has an end portion remote from the end wall which extends outwardly from the peripheral wall to define a spacer; (ii) a multiplicity of spikes which are each releasably retained within a respective aperture of each roller component; and (iii) a support shaft which is insertable through each of the openings of each roller component, wherein each of the roller components when mounted on the support shaft is separated by said spacer being configured to engage with the end wall of one roller component adjacent thereto so that each roller component can rotate independently of each other, wherein the peripheral wall has a plurality of flats each incorporating a respective aperture and each apertured flat has a planar inner surface and a planar outer surface through which aperture a respective spike extends. (i) a roller assembly having a plurality of roller components each having a peripheral wall and a plurality of apertures in the peripheral wall and an end wall which has a centrally located hub or boss surrounding an opening, wherein said hub or boss has an end portion remote from the end wall which extends outwardly from the peripheral wall to define a spacer; (ii) a multiplicity of spikes which are each releasably retained within a respective aperture of each roller component; and (iii) a support shaft which is insertable through each of the openings of each roller component, wherein each of the roller components when mounted on the support shaft is separated by said spacer being configured to engage with the end wall of one roller component adjacent thereto so that each roller component can rotate independently of each other,
A napped leather-like sheet comprising a fiber base material including a non-woven fabric that is an entangled body of ultrafine fibers of 0.5 dtex or less and an elastic polymer applied to the non-woven fabric, wherein the napped leather-like sheet has a surface including a napped region including the ultrafine fibers that have been napped, and a plurality of unnapped regions including the ultrafine fibers that have been thermally welded and laid down, the unnapped regions being surrounded by the napped region, a total area of the unnapped regions accounts for 5 to 30% of an area of the surface, and Y/X is 0.5 to 1.5, where X represents an average nap length (μm) of the napped ultrafine fibers and Y represents an overall average length (μm) of averages of widths, orthogonal to a longitudinal direction, of the unnapped regions, determined according to the method in the description. a fiber base material including a non-woven fabric that is an entangled body of ultrafine fibers of 0.5 dtex or less and an elastic polymer applied to the non-woven fabric, wherein the napped leather-like sheet has a surface including a napped region including the ultrafine fibers that have been napped, and a plurality of unnapped regions including the ultrafine fibers that have been thermally welded and laid down, the unnapped regions being surrounded by the napped region, a total area of the unnapped regions accounts for 5 to 30% of an area of the surface, and Y/X is 0.5 to 1.5, where X represents an average nap length (μm) of the napped ultrafine fibers and Y represents an overall average length (μm) of averages of widths, orthogonal to a longitudinal direction, of the unnapped regions, determined according to the method in the description.
A brake control device for vehicles with bar handle, the brake control device comprising: a wheel speed obtaining unit which is configured to obtain a speed of a wheel of the vehicle; an estimated vehicle body speed setting unit which is configured to set an estimated vehicle body speed based on the speed of the wheel; a control unit which is configured to perform fluid pressure control to raise, reduce or hold a brake fluid pressure that acts on a wheel brake of the vehicle based on the speed of the wheel and the estimated vehicle body speed; and a bank angle obtaining unit which is configured to obtain a bank angle of the vehicle, characterized in that the estimated vehicle body setting unit is configured to set a limit value of a change amount when the estimated vehicle body speed decreases at a time of braking of the vehicle, and set the estimated vehicle body speed based on the limit value when a deceleration amount of the speed of the wheel on a braked side is larger than the limit value, and the estimated vehicle body speed setting unit is configured to correct the limit value so that the change amount decreases as the obtained bank angle increases. a wheel speed obtaining unit which is configured to obtain a speed of a wheel of the vehicle; an estimated vehicle body speed setting unit which is configured to set an estimated vehicle body speed based on the speed of the wheel; a control unit which is configured to perform fluid pressure control to raise, reduce or hold a brake fluid pressure that acts on a wheel brake of the vehicle based on the speed of the wheel and the estimated vehicle body speed; and a bank angle obtaining unit which is configured to obtain a bank angle of the vehicle, characterized in that the estimated vehicle body setting unit is configured to set a limit value of a change amount when the estimated vehicle body speed decreases at a time of braking of the vehicle, and set the estimated vehicle body speed based on the limit value when a deceleration amount of the speed of the wheel on a braked side is larger than the limit value, and the estimated vehicle body speed setting unit is configured to correct the limit value so that the change amount decreases as the obtained bank angle increases.